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HomeMy WebLinkAboutCOPPERLEAF - FDP - FDP170008 - SUBMITTAL DOCUMENTS - ROUND 1 - DRAINAGE REPORTFINAL DRAINAGE REPORT Copperleaf Subdivision Prepared for: Brinkman Partners 3528 Precision Drive, Suite 100 Fort Collins, CO 80528 Prepared by: Interwest Consulting Group 1218 West Ash, Suite A Windsor, Colorado 80550 (970) 674-3300 February 8, 2017 Job Number 1285-045-00 TABLE OF CONTENTS TABLE OF CONTENTS ............................................................................................................ iii 1. GENERAL LOCATION AND DESCRIPTION ................................................................ 1 1.1 Location ........................................................................................................................... 1 1.2 Description of Property ................................................................................................. 1 1.3 Floodplain Submittal Requirements ............................................................................. 1 2. DRAINAGE BASINS AND SUB-BASINS .......................................................................... 2 2.1 Major Basin Description ................................................................................................ 2 2.2 Sub-basin Description .................................................................................................... 2 3. DRAINAGE DESIGN CRITERIA ...................................................................................... 2 3.1 Regulations ...................................................................................................................... 2 3.2 Directly Connected Impervious Area (DCIA) Discussion .......................................... 2 3.3 Development Criteria Reference and Constraints ...................................................... 3 3.4 Hydrological Criteria ..................................................................................................... 4 3.5 Hydraulic Criteria .......................................................................................................... 4 3.6 Floodplain Regulations Compliance ............................................................................. 4 3.7 Modifications of Criteria ............................................................................................... 4 4. DRAINAGE FACILITY DESIGN ....................................................................................... 5 4.1 General Concept ............................................................................................................. 5 4.2 Specific Details ................................................................................................................ 5 5. CONCLUSIONS .................................................................................................................... 7 5.1 Compliance with Standards .......................................................................................... 7 5.2 Drainage Concept ........................................................................................................... 7 6. REFERENCES ...................................................................................................................... 7 APPENDIX VICINITY MAP AND DRAINAGE PLAN .............................................................................. A HYDROLOGIC COMPUTATIONS .......................................................................................... B HYDRAULIC COMPUTATIONS .............................................................................................. C WATER QUALITY AND LID INFORMATION .................................................................... D DETENTION INFORMATION .................................................................................................. E SOILS INFO, FEMA FIRM AND REFERENCE MATERIALS ............................................ F 1 1. GENERAL LOCATION AND DESCRIPTION 1.1 Location The Copperleaf Subdivision (3425 South Shields) is located in the Southeast Quarter of Section 27, Township 7 North, Range 69 West of the Sixth Principal Meridian, in the City of Fort Collins, Larimer County, Colorado. Please refer to the vicinity map in Appendix A. The project site is located on the west side of South Shields Street about 650 feet north of West Horsetooth Road. South Shields Street bounds the property on the east, Horsetooth Commons PUD on the south, Casa Grande Condos on the west and Chaparral PUD on the north. 1.2 Description of Property The property consists of about 2.9 acres of land and will consist of three new multi-family buildings, garages and new parking and drive aisles. The site generally slopes in a northeasterly direction at approximately 1.5%. The land currently contains several buildings and gravel drives. There are no offsite flows contributing to the site. According to FEMA Panel 08069C0986G there are no mapped FEMA Floodways on this property. Please refer to the FEMA FIRM located in Appendix F. 1.3 Floodplain Submittal Requirements Because the project is not within any FEMA or City of Fort Collins mapped floodway, a Floodplain Submittal is not required and a “City of Fort Collins Floodplain Review Checklist for 100% Submittals” has not been included with this report. 2 2. DRAINAGE BASINS AND SUB-BASINS 2.1 Major Basin Description The proposed development lies within the Foothills Basin and the Foothills Master Drainage Plan. 2.2 Sub-basin Description Historically, the site drains to the northeast of the site where water enters an existing storm system located in South Shields Street and ultimately reaches the Foothills Channel. 3. DRAINAGE DESIGN CRITERIA 3.1 Regulations This report was prepared to meet or exceed the “City of Fort Collins Storm Drainage Design Criteria Manual” specifications. Where applicable, the criteria established in the “Urban Storm Drainage Criteria Manual” (UDFCD), developed by the Denver Regional Council of Governments, has been used. 3.2 Directly Connected Impervious Area (DCIA) Discussion Urban Drainage and Flood Control District (UDFCD) recommends a Four Step Process for receiving water protection that focuses on reducing runoff volumes, treating the water quality capture volume (WQCV), stabilizing drainageways and implementing long-term source controls. The Four Step Process applies to the management of smaller, frequently occurring events. Step 1: Employ Runoff Reduction Practices To reduce runoff peaks, volumes, and pollutant loads from urbanizing areas, implement Low Impact Development (LID) strategies, including Minimizing Directly Connected Impervious Areas (MDCIA). 3 Runoff from the parking lots and surrounding sidewalks shall drain directly into pervious pavement systems thereby slowing runoff and also promoting infiltration. Runoff from the buildings shall drain through a water quality pond which promotes settlement of particles. Step 2: Implement BMPs that Provide a Water Quality Capture Volume with Slow Release Once runoff has been minimized, the remaining runoff shall be treated through the pervious pavement system. The pervious pavement system allows for filtering of sediments. Step 3: Stabilize Drainageways Natural Drainageways are subject to bed and bank erosion due to increases in frequency, duration, rate and volume of runoff during and following development. Because the site will drain to a storm sewer, bank stabilization is unnecessary with this project. Step 4: Implement Site Specific and Other Source Control BMPs The proposed development will provide the pervious pavement system feature and the extended detention which will eliminate pollution that had previously been exposed during weathering and runoff processes. The proposed project will proactively control pollutants at their source by preventing pollution rather than removing contaminants once they have entered the stormwater system as compared to historic conditions. 3.3 Development Criteria Reference and Constraints The runoff from this site has been routed to conform to the requirements of the City Stormwater Department. Water quality capture volume and detention will be provided on site. The release rate for the site is the 2-year historic runoff minus the untreated release from off-site basin OS and is 1.0 cfs. Runoff reduction practices (LID techniques) are also required. No less than fifty percent of any newly added impervious area must be treated using one or a combination of LID techniques. The project adds 93,585 sf of new impervious area. Using the pervious paver LID technique, 46,326 sf of new impervious area (50%) will be treated which meets the 50% requirement. 4 No less than twenty five percent of any newly added pavement areas must be treated using a permeable pavement technology. The project adds 46,228 sf of new pavement area. This project will incorporate 17,115 sf of pervious pavers which is 37% of the newly added pavement which exceeds the required 25%. Please refer to Appendix D for LID calculations and information. 3.4 Hydrologic Criteria Runoff computations were prepared for the 2-year and 10-year minor storms and 100-year major storm frequency utilizing the rational method. All hydrologic calculations associated with the basins are included in Appendix B of this report. Standard Form 8 (SF-8) provides time of concentration calculations for all sub- basins. Standard Form 9 (SF-9) provides a summary of the design flows for all Sub- basins and Design Points associated with this site. Water quality capture volume and detention is provided on site in the pervious pavement system and in the water quality and detention pond. 3.5 Hydraulic Criteria All hydraulic calculations are presented in Appendix C and prepared in accordance with the City of Fort Collins Drainage Criteria. 3.6 Floodplain Regulations Compliance The project is not within any FEMA or City of Fort Collins mapped floodway; therefore, Floodplain Regulations Compliance is not required. 3.7 Modifications of Criteria There are no Modifications of Criteria at this time. 5 4. DRAINAGE FACILITY DESIGN 4.1 General Concept The majority of the proposed development will be collected and conveyed to the proposed storm drain system where it will be treated for water quality and detention via pervious pavement systems or the water quality and detention pond before being released into the existing storm system in Shields Street. 4.2 Specific Details A summary of the drainage patterns within each basin is provided in the following paragraphs. Please refer to Appendix A for the drainage plan. Basin A consists of three sub-basins and is a total of 0.46 acres. This basin contains the southern building and the south portion of the western parking lot. Flows from sub-basin A1 contain portions of the southwest garage roof and the adjacent parking lot. This flow is collected in a Type 13 sump inlet at design point A1 and conveyed to the pond via storm system A. Sub-basin A2 contains roof runoff (north portion of Building C) and is conveyed to the water quality and detention pond in the middle of the site via storm system A. Sub-basin A3 contains the southern portion of Building C’s roof and the southern swale. Flow is collected in a Type C sump inlet at design point A3 and transported to the pond via storm system A1. Basins B consists of four sub-basins and is a total of 0.66 acres. This basin contains the northern building and the north portion of the western parking lot. Flows from sub-basin B1 contain portions of the northwest garage roof and the adjacent parking lot. This flow is collected in a Type 13 sump inlet at design point B1 and conveyed to the pond via storm system B. Sub-basin B2 contains roof runoff (south portion of Building B) and is conveyed to the water quality and detention pond in the middle of the site via storm system B. Sub-basin B3 contains the northern portion of Building B’s roof and the northern swale. Flow is collected in a Type C sump inlet at design point B3 and transported to the pond via storm system B1 and are also collected in storm system B. Sub-basin B4 contains portions of the northern garage roofs and the swale behind those garages. Flow is collected in a 24” ADS sump inlet at design point B4 and transported to the pond via storm system B1. 6 Basin C consists of two sub-basins and is a total of 0.32 acres. This basin contains the eastern building. Flows from sub-basins C1 and C2 contain roof runoff and are conveyed to the water quality and detention pond in the middle of the site via storm system C. Basin D is 1.28 acres and contains the parking lot and the water quality and detention pond. Flow from basin D travel through the pervious paver system and then to the water quality and detention pond. The pond releases into the existing storm system in South Shields Street. Basin OS is 0.20 acres and contains a small portion of the site that is adjacent to South Shields Street. Flow from this basin will sheet into the curb and gutter of Shields. The water quality capture volume for the entire site was sized based on a 40-hour drain and is 0.069 ac-ft. Forty percent of the site’s water quality needs are treated in the pervious paver system. The remainder of the site (60%) will be treated in the pond and is 0.04 ac-ft. This will be accomplished at an elevation of 5077.5 ft in the water quality and detention pond. Please refer to Appendix D for water quality information. Based on the historic 2-year release rate of 1.8 cfs minus the off-site 100-year flow from Basin OS (0.9 cfs), the required 100-year release rate is 1.0 cfs. Therefore, the required 100-year storage volume for the site is 0.53 ac-ft. The total required volume in the poind with the 0.04 ac-ft of water quality is 0.57 ac-ft. The portion of the paver system that is adjacent to the pond will have a flat bottom and a deeper rock section (2.5’ minimum) than the paver area between Buildings B and C. This deeper portion will provide 14,020 cf (0.32 ac-ft) of storage volume and was calculated considering the storage would be within the rock void area (30%) with the bottom of the rock at 5076.5 ft and being flooded to 5080.7 ft. A portion of the volume (0.22 ac-ft) will be achieved at an elevation of 5080.7 ft in the pond. The remainder of the volume (0.03 ac-ft) will be achieved within the volume of the mainline pipe system. The pond is released into the existing storm system in South Shields Street. Emergency overflow for the site will pass over the driveway at an elevation of 5080.7 feet to South Shields Street. Please refer to Appendix E for detention information. 7 5. CONCLUSIONS 5.1 Compliance with Standards All computations that have been completed within this report are in compliance with the City of Fort Collins Storm Drainage Design Criteria Manual. 5.2 Drainage Concept The proposed drainage concepts presented in this report and on the construction plans adequately provides for stormwater quantity and quality treatment of proposed impervious areas. Conveyance elements have been designed to pass required flows and to minimize future maintenance. If, at the time of construction, groundwater is encountered, a Colorado Department of Health Construction Dewatering Permit will be required. 6. REFERENCES 1. City of Fort Collins, “Fort Collins Stormwater Criteria Manual Amendments to the Urban Drainage and Flood Control District Criteria Manual”, adopted December 2011. 2. Urban Drainage and Flood Control District, “Urban Storm Drainage Criteria Manual”, Volumes 1 and 2, updated January 2016, and Volume 3 updated November 2010. A APPENDIX A VICINITY MAP AND DRAINAGE PLAN B APPENDIX B HYDROLOGIC COMPUTATIONS SUMMARY DRAINAGE SUMMARY TABLE Design Tributary Area C (10) C (100) tc (10) tc (100) Q(2)tot Q(10)tot Q(100)tot Sub-basin REMARKS Point (ac) (min) (min) (cfs) (cfs) (cfs) A1 A1 0.12 0.84 1.05 5.0 5.0 0.3 0.5 1.3 Sump Inlet (TYPE 13) A2 A2 0.12 0.81 1.02 5.0 5.0 0.3 0.5 1.2 Roof System A3 A3 0.22 0.67 0.83 5.0 5.0 0.4 0.7 1.8 Sump Inlet (TYPE C) B1 B1 0.16 0.90 1.12 5.0 5.0 0.4 0.7 1.8 Sump Inlet (TYPE 13) B2 B2 0.14 0.92 1.15 5.0 5.0 0.4 0.6 1.6 Roof System B3 B3 0.31 0.52 0.65 8.0 6.9 0.4 0.7 1.8 Sump Inlet (TYPE C) B4 B4 0.05 0.55 0.68 5.0 5.0 0.1 0.1 0.4 Sump Inlet (24" ADS) C1 C1 0.16 0.81 1.01 5.0 5.0 0.4 0.6 1.6 Roof System C2 C2 0.16 0.78 0.97 5.0 5.0 0.4 0.6 1.6 Roof System D D 1.28 0.68 0.86 8.5 6.7 2.1 3.5 9.8 Pavers & Sump Inlet (TYPE R) OS OS 0.20 0.40 0.51 8.6 7.8 0.2 0.3 0.9 Offsite Page 1 Interwest Consulting Group RUNOFF COEFFICIENTS & % IMPERVIOUS LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 Recommended Runoff Coefficients from Table RO-11 of City of Fort Collins Stormwater Code, Volume I Recommended % Impervious from Table RO-3 Urban Storm Drainage Criteria Manual, Volume I Type C Soils Runoff % coefficient Impervious C Streets, parking lots (asphalt): 0.95 100 Sidewalks (concrete): 0.95 96 Roofs: 0.95 90 Gravel/Pavers: 0.50 40 Heavy Soil (Flat, <2%) : 0.20 0 SUBBASIN TOTAL TOTAL ROOF PAVED GRAVEL/PAVERS SIDEWALK LANDSCAPE RUNOFF % DESIGNATION AREA AREA AREA AREA AREA AREA AREA COEFF. Impervious REMARKS (ac.) (sq.ft) (sq.ft) (sq.ft) (sq.ft) (sq.ft) (sq.ft) (C) Existing Lot 2.92 127,313 6,623 0 25,000 3,794 91,897 0.32 15 Historic Proposed Lot 2.92 127,313 36,613 29,408 17,115 10,449 33,729 0.69 62 Calc'd %I Equations - Calculated C coefficients & % Impervious are area weighted C =  (Ci Ai) / At Ci = runoff coefficient for specific area, Ai Ai = areas of surface with runoff coefficient of Ci n = number of different surfaces to consider At = total area over which C is applicable; the sum of all Ai's 2-8-17 Final FC Flow-Copperleaf.xls Interwest Consulting Group RUNOFF COEFFICIENTS & % IMPERVIOUS LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 Recommended Runoff Coefficients from Table RO-11 of City of Fort Collins Stormwater Code, Volume I Recommended % Impervious from Table RO-3 Urban Storm Drainage Criteria Manual, Volume I Type C Soils Runoff % coefficient Impervious C Streets, parking lots (asphalt): 0.95 100 Sidewalks (concrete): 0.95 96 Roofs: 0.95 90 Gravel or Pavers: 0.50 40 Landscape Areas (Flat, heavy) : 0.20 0 Landscape Areas (Steep, heavy) : 0.35 0 SUBBASIN TOTAL TOTAL ROOF PAVED PAVERS SIDEWALK LANDSCAPE RUNOFF % DESIGNATION AREA AREA AREA AREA AREA AREA AREA COEFF. Impervious REMARKS (ac.) (sq.ft) (sq.ft) (sq.ft) (sq.ft) (sq.ft) (sq.ft) (C) A1 0.12 5,262 578 3,435 0 482 767 0.84 84 A2 0.12 5,321 4,225 0 0 135 960 0.81 74 A3 0.22 9,399 5,648 0 0 198 3,553 0.67 56 B1 0.16 7,104 1,060 4,684 0 855 506 0.90 91 B2 0.14 5,924 5,650 0 0 67 206 0.92 87 B3 0.31 13,335 4,445 0 0 1,250 7,640 0.52 39 B4 0.05 2,365 1,096 0 0 0 1,270 0.55 42 C1 0.16 6,881 5,151 0 0 422 1,308 0.81 73 C2 0.16 7,119 5,310 0 0 176 1,633 0.78 70 D 1.28 55,843 3,450 20,288 17,115 5,473 9,517 0.68 64 OS 0.20 8,762 0 1,001 0 1,390 6,371 0.40 27 TOTAL TO POND 2.72 118,554 36,613 28,407 17,115 9,059 27,360 0.71 65 Equations - Calculated C coefficients & % Impervious are area weighted C =  (Ci Ai) / At Ci = runoff coefficient for specific area, Ai Ai = areas of surface with runoff coefficient of Ci n = number of different surfaces to consider At = total area over which C is applicable; the sum of all Ai's 2-8-17 Final FC Flow-Copperleaf.xls Interwest Consulting Group STANDARD FORM SF-2 TIME OF CONCENTRATION - 2 and 10 YR LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 2 and 10-yr storm Cf = 1.00 from Table RO-12 of City of Fort Collins Stormwater Code, Volume I SUB-BASIN INITIAL /OVERLAND TRAVEL TIME / GUTTER OR CHANNEL FLOW tc CHECK FINAL REMARKS DATA TIME (ti) (tt) (URBANIZED BASIN) tc DESIGN SUBBASIN(s) Area C Length Slope ti Length Slope n Vel. tt tc = Total L tc=(l/180)+10 PONIT (ac) (ft) (%) (min) (ft) (%) Manning (ft/s) (min) ti + tt (ft) (min) (min) (1) (2) (3) (4) (5) (6) (7) (8) rough. (9) (10) (11) (12) (13) (14) EX LOT 2.92 0.32 300 1.8 20.7 275 0.9 0.03 1.0 4.5 25.1 575 13.2 13.2 A1 A1 0.12 0.84 57 3.2 2.5 37 0.5 0.016 1.4 0.4 2.9 94 10.5 5.0 A2 A2 0.12 0.81 5 2.0 0.9 190 0.5 0.016 1.4 2.2 3.2 195 11.1 5.0 A3 A3 0.22 0.67 15 2.0 2.5 170 2.3 0.03 1.6 1.7 4.2 185 11.0 5.0 B1 B1 0.16 0.90 27 4.2 1.2 80 0.5 0.016 1.4 0.9 2.2 107 10.6 5.0 B2 B2 0.14 0.92 5 2.0 0.6 190 0.5 0.016 1.4 2.2 2.8 195 11.1 5.0 B3 B3 0.31 0.52 30 2.0 4.7 367 1.4 0.02 1.9 3.3 8.0 397 12.2 8.0 B4 B4 0.05 0.55 5 2.0 1.8 68.5 0.5 0.016 1.4 0.8 2.6 74 10.4 5.0 C1 C1 0.16 0.81 5 2.0 1.0 177 0.5 0.016 1.4 2.1 3.0 182 11.0 5.0 C2 C2 0.16 0.78 5 2.0 1.1 215 0.5 0.016 1.4 2.5 3.6 220 11.2 5.0 D D 1.28 0.68 54 2.2 4.4 282 0.5 0.02 1.1 4.1 8.5 336 11.9 8.5 OS OS 0.20 0.40 30 2.0 5.7 250 0.5 0.016 1.4 2.9 8.6 280 11.6 8.6 TOTAL TO POND 2.72 0.71 54 2.0 4.2 282 0.5 0.02 1.1 4.1 8.4 336 11.9 8.4 EQUATIONS: tc = ti + tt ti = [1.87 (1.1 - CCf ) L0.5 ] / S 1/3 tt = L/Vel. Velocity from Manning's Equation with R=0.1 (corresponds to Figure 3-3 of City of Fort Collins Design Manual) final tc = minimum of ti + tt and urbanized basin check min. tc = 5 min. due to limits of IDF curves 2-8-17 Final FC Flow-Copperleaf.xls Interwest Consulting Group STANDARD FORM SF-2 TIME OF CONCENTRATION - 100 YR LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 100-yr storm Cf = 1.25 from Table RO-12 of City of Fort Collins Stormwater Code, Volume I SUB-BASIN INITIAL /OVERLAND TRAVEL TIME / GUTTER OR CHANNEL FLOW tc CHECK FINAL REMARKS DATA TIME (ti) (tt) (URBANIZED BASIN) tc DESIGN SUBBASIN(s) Area C C*Cf Length Slope ti Length Slope n Vel. tt tc = Total L tc=(l/180)+10 PONIT (ac) (ft) (%) (min) (ft) (%) Manning (ft/s) (min) ti + tt (ft) (min) (min) (1) (2) (3) (4) (5) (6) (7) (8) rough. (9) (10) (11) (12) (13) (14) EX LOT 2.92 0.32 0.40 300 1.8 18.5 275 0.9 0.03 1.0 4.5 23.0 575 13.2 13.2 A1 A1 0.12 0.84 1.05 57 3.2 0.5 37 0.5 0.016 1.4 0.4 0.9 94 10.5 5.0 A2 A2 0.12 0.81 1.02 5 2.0 0.3 190 0.5 0.016 1.4 2.2 2.5 195 11.1 5.0 A3 A3 0.22 0.67 0.83 15 2.0 1.5 170 2.3 0.03 1.6 1.7 3.3 185 11.0 5.0 B1 B1 0.16 0.90 1.12 27 4.2 -0.1 80 0.5 0.016 1.4 0.9 0.8 107 10.6 5.0 B2 B2 0.14 0.92 1.15 5 2.0 -0.2 190 0.5 0.016 1.4 2.2 2.0 195 11.1 5.0 B3 B3 0.31 0.52 0.65 30 2.0 3.7 367 1.4 0.02 1.9 3.3 6.9 397 12.2 6.9 B4 B4 0.05 0.55 0.68 5 2.0 1.4 68.5 0.5 0.016 1.4 0.8 2.2 74 10.4 5.0 C1 C1 0.16 0.81 1.01 5 2.0 0.3 177 0.5 0.016 1.4 2.1 2.4 182 11.0 5.0 C2 C2 0.16 0.78 0.97 5 2.0 0.4 215 0.5 0.016 1.4 2.5 2.9 220 11.2 5.0 D D 1.28 0.68 0.86 54 2.2 2.6 282 0.5 0.02 1.1 4.1 6.7 336 11.9 6.7 OS OS 0.20 0.40 0.51 30 2.0 4.8 250 0.5 0.016 1.4 2.9 7.8 280 11.6 7.8 TOTAL TO POND 2.72 0.71 0.89 54 2.0 2.3 282 0.5 0.02 1.1 4.1 6.4 336 11.9 6.4 EQUATIONS: tc = ti + tt ti = [1.87 (1.1 - CCf ) L 0.5 ] / S 1/3 tt = L/Vel. Velocity from Manning's Equation with R=0.1 (corresponds to Figure 3-3 of City of Fort Collins Design Manual) final tc = minimum of ti + tt and urbanized basin check min. tc = 5 min. due to limits of IDF curves 2-8-17 Final FC Flow-Copperleaf.xls Interwest Consulting Group RATIONAL METHOD PEAK RUNOFF (City of Fort Collins, 2-Yr Storm) LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 2 yr storm, Cf = 1.00 DIRECT RUNOFF CARRY OVER TOTAL REMARKS Design Tributary A C Cf tc i Q (2) from Q (2) Q(2)tot Sub-basin Design Point (ac) (min) (in/hr) (cfs) Point (cfs) (cfs) EX LOT 2.92 0.32 13.2 1.98 1.9 1.9 Historic 2-year A1 A1 0.12 0.84 5.0 2.85 0.3 0.3 A2 A2 0.12 0.81 5.0 2.85 0.3 0.3 A3 A3 0.22 0.67 5.0 2.85 0.4 0.4 B1 B1 0.16 0.90 5.0 2.85 0.4 0.4 B2 B2 0.14 0.92 5.0 2.85 0.4 0.4 B3 B3 0.31 0.52 8.0 2.42 0.4 0.4 B4 B4 0.05 0.55 5.0 2.85 0.1 0.1 C1 C1 0.16 0.81 5.0 2.85 0.4 0.4 C2 C2 0.16 0.78 5.0 2.85 0.4 0.4 D D 1.28 0.68 8.5 2.37 2.1 2.1 OS OS 0.20 0.40 8.6 2.36 0.2 0.2 TOTAL TO POND 2.72 0.71 8.4 2.38 4.6 4.6 Q = Cf C iA Q = peak discharge (cfs) C = runoff coefficient Cf = frequency adjustment factor i = rainfall intensity (in/hr) from City of Fort Collins IDF curve (4/16/99) A = drainage area (acres) i = 24.221 / (10+ tc)0.7968 2-8-17 Final FC Flow-Copperleaf.xls Interwest Consulting Group RATIONAL METHOD PEAK RUNOFF (City of Fort Collins, 10-Yr Storm) LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 10 yr storm, Cf = 1.00 DIRECT RUNOFF CARRY OVER TOTAL REMARKS Design Tributary A C Cf tc i Q (10) from Q (10) Q(10)tot Sub-basin Design Point (ac) (min) (in/hr) (cfs) Point (cfs) (cfs) EX LOT 2.92 0.32 13.2 3.38 3.2 3.2 A1 A1 0.12 0.84 5.0 4.87 0.5 0.5 A2 A2 0.12 0.81 5.0 4.87 0.5 0.5 A3 A3 0.22 0.67 5.0 4.87 0.7 0.7 B1 B1 0.16 0.90 5.0 4.87 0.7 0.7 B2 B2 0.14 0.92 5.0 4.87 0.6 0.6 B3 B3 0.31 0.52 8.0 4.14 0.7 0.7 B4 B4 0.05 0.55 5.0 4.87 0.1 0.1 C1 C1 0.16 0.81 5.0 4.87 0.6 0.6 C2 C2 0.16 0.78 5.0 4.87 0.6 0.6 D D 1.28 0.68 8.5 4.04 3.5 3.5 OS OS 0.20 0.40 8.6 4.03 0.3 0.3 TOTAL TO POND 2.72 0.71 8.4 4.07 7.9 7.9 Q = Cf C iA Q = peak discharge (cfs) C = runoff coefficient Cf = frequency adjustment factor i = rainfall intensity (in/hr) from City of Fort Collins IDF curve (4/16/99) A = drainage area (acres) i = 41.44 / (10+ tc)0.7974 2-8-17 Final FC Flow-Copperleaf.xls Interwest Consulting Group RATIONAL METHOD PEAK RUNOFF (City of Fort Collins, 100-Yr Storm) LOCATION: Copperleaf Subdivision PROJECT NO: 1285-045-00 COMPUTATIONS BY: es DATE: 2/8/2017 100 yr storm, Cf = 1.25 DIRECT RUNOFF CARRY OVER TOTAL REMARKS Des. Area A C Cf tc i Q (100) from Q (100) Q(100)tot Design Point Design. (ac) (min) (in/hr) (cfs) Point (cfs) (cfs) EX LOT 2.92 0.40 13.2 6.90 8.1 8.1 A1 A1 0.12 1.05 5.0 9.95 1.3 1.3 A2 A2 0.12 1.02 5.0 9.95 1.2 1.2 A3 A3 0.22 0.83 5.0 9.95 1.8 1.8 B1 B1 0.16 1.12 5.0 9.95 1.8 1.8 B2 B2 0.14 1.15 5.0 9.95 1.6 1.6 B3 B3 0.31 0.65 6.9 8.87 1.8 1.8 B4 B4 0.05 0.68 5.0 9.95 0.4 0.4 C1 C1 0.16 1.01 5.0 9.95 1.6 1.6 C2 C2 0.16 0.97 5.0 9.95 1.6 1.6 D D 1.28 0.86 6.7 8.96 9.8 9.8 OS OS 0.20 0.51 7.8 8.54 0.9 0.9 TOTAL TO POND 2.72 0.89 6.4 9.09 22.0 22.0 Q = C iA Q = peak discharge (cfs) C = runoff coefficient i = rainfall intensity (in/hr) from City of Fort Collins IDF curve (4/16/99) A = drainage area (acres) i = 84.682 / (10+ tc) 0.7975 2-8-17 Final FC Flow-Copperleaf.xls C APPENDIX C HYDRAULIC CALCULATIONS Interwest Consulting Group 1218 W. Ash, Suite C Windsor, CO 80550 Inlet Flow Calculation for Area Inlets Project: Copperleaf Job Number : 1284-045-00 Calculations by : ES Date : 2/2/2017 Objective: to find the number of grates required for area inlets in grassy areas Geometry at inlet : Width (W): 1.87 feet Length (L): 3.27 feet Opening Ratio (R): 0.6 sq ft/sq ft Reduction Factor (F): 50% Grate Flow: Use the orifice equation Qi = C*A*SQRT(2*g*H) to find the ideal inlet capacity.* *See Hydraulic Design Handbook by McGraw-Hill for verificaiton of equation use and C value C = Orifice discharge coefficient= 0.67 A = Orifice area (ft2) - open area of grate g = gravitational constant = 32.2 ft/s2 H = head on grate centroid, ponding depth (feet) Then multiply by the reduction factor for the allowable capacity. QG = Qi * (1-F) DP A1 Q = 1.3 cfs H = 0.79 ft Single Type 13 Inlet Double Type 13 Inlet Triple Type 13 Inlet A = W*L*R A = 2*W*L*R A = 3*W*L*R =3.67ft2 =7.34ft2 = 11.01 ft2 Qi = C*A*SQRT(2*g*H) Qi = C*A*SQRT(2*g*H) Qi = C*A*SQRT(2*g*H) = 17.53 cfs = 35.07 cfs = 52.60 cfs QG = Qi * F QG = Qi * F QG = Qi * F = 8.77 cfs = 17.53 cfs = 26.30 cfs USE : Single Type 13 Inlet DP B1 Q = 1.8 cfs H = 0.89 ft Single Type 13 Inlet Double Type 13 Inlet Triple Type 13 Inlet A = W*L*R A = 2*W*L*R A = 3*W*L*R =3.67ft2 =7.34ft2 = 11.01 ft2 Qi = C*A*SQRT(2*g*H) Qi = C*A*SQRT(2*g*H) Qi = C*A*SQRT(2*g*H) = 18.61 cfs = 37.22 cfs = 55.83 cfs QG = Qi * F QG = Qi * F QG = Qi * F = 9.31 cfs = 18.61 cfs = 27.92 cfs USE : Single Type 13 Inlet Grate Dimensions and information: WSEL Page1 Interwest Consulting Group 1218 W. Ash, Suite C Windsor, CO 80550 Inlet Flow Calculation for Area Inlets Project: Copperleaf Job Number : 1284-045-00 Calculations by : es Date : 2/2/2017 Objective: to determine capacity of Type C area inlet with close mesh grate Geometry at inlet : Close Mesh Grate Width (W): 2.625 feet Length (L): 3.3542 feet Open Area (A): 6.6944 sq ft Reduction Factor (F): 50% Grate Flow: Use the orifice equation Qi = C*A*SQRT(2*g*H) to find the ideal inlet capacity.* *See Hydraulic Design Handbook by McGraw-Hill for verificaiton of equation use and C value C = Orifice discharge coefficient= 0.67 A = Orifice area (ft2) - open area of grate g = gravitational constant = 32.2 ft/s2 H = head on grate centroid, ponding depth (feet) Then multiply by the reduction factor for the allowable capacity. QG = Qi * (1-F) DP A3 DETERMINE CAPACITY OF TYPE C INLET H = 0.51 ft Single Type C Inlet A = 1*A =6.69ft2 Qi = C*A*SQRT(2*g*H) = 25.70 cfs QG = Qi * F = 12.9 cfs OK, Flow of Basin A3 = 1.8 cfs USE : Single Type C Inlet DP B3 DETERMINE CAPACITY OF TYPE C INLET H = 0.67 ft Single Type C Inlet A = 1*A =6.69ft2 Qi = C*A*SQRT(2*g*H) = 29.46 cfs QG = Qi * F = 14.7 cfs OK, Flow of Basin B3 = 1.8 cfs USE : Single Type C Inlet Grate Dimensions and information: WSEL Page1 Interwest Consulting Group 1218 W. Ash, Suite C Windsor, CO 80550 Inlet Flow Calculation for Area Inlet (24" Drop ADS Inlet) Project: Copperleaf Job Number : 1284-045-00 Calculations by : es Date : 2/2/2017 Objective: to find the number of grates required for area inlets in grassy areas Geometry at inlet : Square Feet Open (A): 1.145 sf Reduction Factor (F): 50% Grate Flow: Use the orifice equation Qi = C*A*SQRT(2*g*H) to find the ideal inlet capacity.* *See Hydraulic Design Handbook by McGraw-Hill for verificaiton of equation use and C value C = Orifice discharge coefficient= 0.67 A = Orifice area (ft2) - open area of grate g = gravitational constant = 32.2 ft/s2 H = head on grate centroid, ponding depth (feet) Then multiply by the reduction factor for the allowable capacity. QG = Qi * (1-F) DP B4 Q = 0.4 cfs Q100 H = 0.55 ft A= 1.15 ft2 Qi = C*A*SQRT(2*g*H) = 4.57 cfs QG = Qi * F = 2.28 cfs OK Grate Open Area and information: WSEL Page1 Worksheet Protected Project: Inlet ID: Design Flow: ONLY if already determined through other methods: Minor Storm Major Storm (local peak flow for 1/2 of street OR grass-lined channel): *QKnown = 1.8 4.9 cfs * If you enter values in Row 14, skip the rest of this sheet and proceed to sheet Q-Allow or Area Inlet. Geographic Information: (Enter data in the blue cells): Subcatchment Area = Acres Percent Imperviousness = % NRCS Soil Type = A, B, C, or D Slope (ft/ft) Length (ft) Overland Flow = Channel Flow = Rainfall Information: Intensity I (inch/hr) = C1 * P 1 / ( C2 + Tc ) ^ C 3 Minor Storm Major Storm Design Storm Return Period, Tr = years Return Period One-Hour Precipitation, P1 = inches C1 = C2 = C3 = User-Defined Storm Runoff Coefficient (leave this blank to accept a calculated value), C = User-Defined 5-yr. Runoff Coefficient (leave this blank to accept a calculated value), C5 = Bypass (Carry-Over) Flow from upstream Subcatchments, Qb = 0.0 0.0 cfs Total Design Peak Flow, Q = 1.8 4.9 cfs <--- FILL IN THIS SECTION OR… FILL IN THE SECTIONS BELOW. <--- DESIGN PEAK FLOW FOR ONE-HALF OF STREET OR GRASS-LINED CHANNEL BY THE RATIONAL METHOD COPPERLEAF D Site is Urban Site is Non-Urban Show Details Site Type: Street Inlets Area Inlets in a Median Flows Developed For: 2-2-17 TYPE R DP D UD-Inlet_v3.14.xlsm, Q-Peak 2/2/2017, 10:40 AM Project: Inlet ID: Gutter Geometry (Enter data in the blue cells) Maximum Allowable Width for Spread Behind Curb TBACK = 0.0 ft Side Slope Behind Curb (leave blank for no conveyance credit behind curb) SBACK = 0.000 ft/ft Manning's Roughness Behind Curb (typically between 0.012 and 0.020) nBACK = 0.013 Height of Curb at Gutter Flow Line HCURB = 6.00 inches Distance from Curb Face to Street Crown TCROWN = 60.0 ft Gutter Width W = 1.00 ft Street Transverse Slope SX = 0.020 ft/ft Gutter Cross Slope (typically 2 inches over 24 inches or 0.083 ft/ft) SW = 0.083 ft/ft Street Longitudinal Slope - Enter 0 for sump condition SO = 0.000 ft/ft Manning's Roughness for Street Section (typically between 0.012 and 0.020) nSTREET = 0.013 Minor Storm Major Storm Max. Allowable Spread for Minor & Major Storm TMAX = 12.0 24.0 ft Max. Allowable Depth at Gutter Flowline for Minor & Major Storm dMAX = 6.0 6.0 inches Allow Flow Depth at Street Crown (leave blank for no) check = yes MINOR STORM Allowable Capacity is based on Depth Criterion Minor Storm Major Storm MAJOR STORM Allowable Capacity is based on Depth Criterion Qallow = SUMP SUMP cfs Major storm max. allowable capacity GOOD - greater than flow given on sheet 'Q-Peak' ALLOWABLE CAPACITY FOR ONE-HALF OF STREET (Minor & Major Storm)0 COPPERLEAF D (Based on Regulated Criteria for Maximum Allowable Flow Depth and Spread) Minor storm max. allowable capacity GOOD - greater than flow given on sheet 'Q-Peak' 2-2-17 TYPE R DP D UD-Inlet_v3.14.xlsm, Q-Allow 2/2/2017, 10:40 AM Project = Inlet ID = Design Information (Input) MINOR MAJOR Type of Inlet Inlet Type = Local Depression (additional to continuous gutter depression 'a' from 'Q-Allow') alocal = 3.00 3.00 inches Number of Unit Inlets (Grate or Curb Opening) No = 1 1 Water Depth at Flowline (outside of local depression) Ponding Depth = 3.6 6.0 inches Grate Information MINOR MAJOR Length of a Unit Grate Lo (G) = N/A N/A feet Width of a Unit Grate Wo = N/A N/A feet Area Opening Ratio for a Grate (typical values 0.15-0.90) Aratio = N/A N/A Clogging Factor for a Single Grate (typical value 0.50 - 0.70) Cf (G) = N/A N/A Grate Weir Coefficient (typical value 2.15 - 3.60) Cw (G) = N/A N/A Grate Orifice Coefficient (typical value 0.60 - 0.80) Co (G) = N/A N/A Curb Opening Information MINOR MAJOR Length of a Unit Curb Opening Lo (C) = 5.00 5.00 feet Height of Vertical Curb Opening in Inches Hvert = 6.00 6.00 inches Height of Curb Orifice Throat in Inches Hthroat = 6.00 6.00 inches Angle of Throat (see USDCM Figure ST-5) Theta = 63.40 63.40 degrees Side Width for Depression Pan (typically the gutter width of 2 feet) Wp = 1.00 1.00 feet Clogging Factor for a Single Curb Opening (typical value 0.10) Cf (C) = 0.10 0.10 Curb Opening Weir Coefficient (typical value 2.3-3.7) Cw (C) = 3.60 3.60 Curb Opening Orifice Coefficient (typical value 0.60 - 0.70) Co (C) = 0.67 0.67 MINOR MAJOR Total Inlet Interception Capacity (assumes clogged condition) Qa = 2.3 5.9 cfs Inlet Capacity IS GOOD for Minor and Major Storms (>Q PEAK) Q PEAK REQUIRED = 1.8 4.9 cfs INLET IN A SUMP OR SAG LOCATION COPPERLEAF D CDOT Type R Curb Opening H-Vert H-Curb W Lo (C) Lo (G) Wo WP Override Depths 2-2-17 TYPE R DP D UD-Inlet_v3.14.xlsm, Inlet In Sump 2/2/2017, 10:40 AM Scenario: 100-YR P18 P16 P15 P14 P12 P9 P6 P5 P2 P1 P22 P20 O-2 O-3 EX MH IN A1, A2 IN A3 IN B3 IN D1 IN D2 POND OUT IN-C2 IN-C1 IN-B4 IN B1, B2 MH-17 MH-16 MH-15 MH-14 MH-13 MH-11 MH-10 MH-9 MH-18 MH-19 MH-3 MH-2 MH-1 MH-20 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 1/31/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Conduit FlexTable: Combined Pipe/Node Report Energy Grade Line (Out) (ft) Energy Grade Line (In) (ft) Hydraulic Grade Line (Out) (ft) Hydraulic Grade Line (In) (ft) Slope (Calculat ed) (ft/ft) Invert (Stop) (ft) Invert (Start) (ft) Velocity (ft/s) Flow (cfs) Diam eter (in) Length Material (Unified) (ft) Stop Node Start Node Label Concret 30.0 13.20 2.69 75.74 75.76 -0.003 80.71 80.70 80.82 80.81 P1 O-2 IN D1 6.3 e Concret 30.0 9.90 2.02 75.76 75.96 -0.005 80.71 80.69 80.78 80.75 P2 IN D1 MH-9 38.2 e Concret 18.0 4.30 2.43 75.96 76.13 -0.005 80.83 80.78 80.92 80.87 P3 MH-9 MH-14 33.0 e Concret 18.0 4.30 2.43 76.13 76.29 -0.005 80.93 80.88 81.02 80.97 P4 MH-14 MH-15 33.0 e P5 MH-15 MH-17 190.4 PVC 15.0 2.50 2.04 76.29 77.24 -0.005 81.16 80.99 81.22 81.05 Concret 15.0 2.50 2.04 77.24 77.43 -0.005 81.25 81.19 81.31 81.26 36.9 e IN A1, P6 MH-17 A2 P7 MH-15 MH-16 51.6 PVC 15.0 1.80 1.47 76.29 76.55 -0.005 81.01 80.99 81.04 81.02 P8 MH-16 IN A3 25.0 PVC 15.0 1.80 1.47 76.55 76.68 -0.005 81.04 81.03 81.07 81.06 P9 MH-9 MH-13 190.4 PVC 15.0 3.40 2.77 75.96 76.91 -0.005 81.09 80.78 81.21 80.89 Concret 15.0 3.40 2.77 76.91 77.31 -0.005 81.38 81.16 81.50 81.28 79.8 e IN B1, P10 MH-13 B2 Conduit FlexTable: Combined Pipe/Node Report Energy Grade Line (Out) (ft) Energy Grade Line (In) (ft) Hydraulic Grade Line (Out) (ft) Hydraulic Grade Line (In) (ft) Slope (Calculat ed) (ft/ft) Invert (Stop) (ft) Invert (Start) (ft) Velocity (ft/s) Flow (cfs) Diam eter (in) Length Material (Unified) (ft) Stop Node Start Node Label P24 MH-18 IN-C1 33.0 PVC 12.0 1.60 2.04 76.11 76.29 -0.005 80.86 80.82 80.93 80.89 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 2 of 2 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] FlexTable: Catch Basin Table Energy Grade Line (Out) (ft) Energy Grade Line (In) (ft) Hydraulic Grade Line (Out) (ft) Hydraulic Grade Line (In) (ft) Flow (Additional Subsurface) (cfs) Elevation (Invert) (ft) Elevation (Rim) (ft) Elevation (Ground) (ft) ID Label POND 80.70 80.70 75.64 1.00 78.04 78.04 78.07 78.07 45 OUT 46 IN D2 80.28 80.78 75.79 6.50 80.73 80.70 80.78 80.76 47 IN D1 80.19 80.69 75.76 3.30 80.75 80.69 80.81 80.80 48 IN B3 80.89 81.70 76.39 1.80 80.89 80.86 80.90 80.91 49 IN A3 81.86 81.86 76.68 1.80 81.04 81.04 81.07 81.07 IN A1, 84.18 84.18 77.43 2.50 81.25 81.25 81.31 81.31 50 A2 IN B1, 83.49 83.49 77.31 3.40 81.38 81.38 81.50 81.50 51 B2 75 IN-B4 80.40 80.95 76.86 0.40 80.90 80.90 80.90 80.90 77 IN-C1 81.44 81.44 76.29 1.60 80.86 80.86 80.93 80.93 78 IN-C2 81.14 81.70 78.08 1.60 81.39 81.39 81.46 81.46 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] FlexTable: Manhole Table Energy Grade Line (Out) (ft) Energy Grade Line (In) (ft) Hydraulic Grade Line (In) (ft) Hydraulic Grade Line (Out) (ft) Flow (Total Out) (cfs) Elevation (Invert) (ft) Bolted Cover? Elevation (Rim) (ft) Elevation (Ground) (ft) Label MH-1 80.98 80.98 False 75.31 1.00 77.94 77.96 77.98 77.97 MH-2 81.27 81.27 False 75.35 1.00 77.96 77.98 78.01 77.99 MH-3 80.77 80.77 False 75.60 1.00 78.02 78.04 78.06 78.04 MH-9 80.90 80.90 False 75.96 9.90 80.71 80.78 80.83 80.78 MH-10 82.35 82.35 False 76.34 2.20 80.83 80.86 80.91 80.88 MH-11 81.44 81.44 False 76.52 0.40 80.90 80.90 80.90 80.90 MH-13 86.04 86.04 False 76.91 3.40 81.09 81.16 81.28 81.21 MH-14 80.61 80.61 True 76.13 4.30 80.83 80.88 80.97 80.92 MH-15 80.85 80.85 True 76.29 4.30 80.93 80.99 81.02 81.02 MH-16 82.30 82.30 False 76.55 1.80 81.01 81.03 81.06 81.04 MH-17 86.04 86.04 False 77.24 2.50 81.16 81.19 81.26 81.22 MH-18 81.85 81.85 False 76.11 3.20 80.79 80.82 80.89 80.85 MH-19 81.53 81.53 False 77.17 1.60 81.13 81.18 81.24 81.19 MH-20 82.11 82.11 False 76.82 1.60 80.99 81.04 81.11 81.06 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] FlexTable: Conduit Table Hydraulic Grade Line (Out) (ft) Hydraulic Grade Line (In) (ft) Velocity (ft/s) Capacity (Full Flow) (cfs) Flow (cfs) Manning's n Diam eter (in) Section Type Slope (Calcula ted) (ft/ft) Length (Unified) (ft) Invert (Stop) (ft) Stop Node Invert (Start) (ft) Label Start Node P1 O-2 75.74 IN D1 75.76 6.3 -0.003 Circle 30.0 0.013 13.20 23.11 2.69 80.71 80.70 P2 IN D1 75.76 MH-9 75.96 38.2 -0.005 Circle 30.0 0.013 9.90 29.68 2.02 80.71 80.69 P3 MH-9 75.96 MH-14 76.13 33.0 -0.005 Circle 18.0 0.013 4.30 7.54 2.43 80.83 80.78 P4 MH-14 76.13 MH-15 76.29 33.0 -0.005 Circle 18.0 0.013 4.30 7.31 2.43 80.93 80.88 P5 MH-15 76.29 MH-17 77.24 190.4 -0.005 Circle 15.0 0.010 2.50 5.93 2.04 81.16 80.99 IN A1, 77.43 36.9 -0.005 Circle 15.0 0.013 2.50 4.64 2.04 81.25 81.19 P6 MH-17 77.24 A2 P7 MH-15 76.29 MH-16 76.55 51.6 -0.005 Circle 15.0 0.010 1.80 5.96 1.47 81.01 80.99 P8 MH-16 76.55 IN A3 76.68 25.0 -0.005 Circle 15.0 0.010 1.80 6.06 1.47 81.04 81.03 P9 MH-9 75.96 MH-13 76.91 190.4 -0.005 Circle 15.0 0.010 3.40 5.93 2.77 81.09 80.78 IN B1, 77.31 79.8 -0.005 Circle 15.0 0.013 3.40 4.57 2.77 81.38 81.16 P10 MH-13 76.91 B2 P11 MH-9 75.96 MH-10 76.34 75.9 -0.005 Circle 15.0 0.010 2.20 5.94 1.79 80.83 80.78 P12 MH-10 76.34 IN B3 76.39 10.1 -0.005 Circle 15.0 0.010 2.20 5.91 1.79 80.86 80.86 P13 IN B3 76.39 MH-11 76.52 25.6 -0.005 Circle 15.0 0.010 0.40 5.98 0.33 80.90 80.89 P14 MH-11 76.52 IN-B4 76.86 68.5 -0.005 Circle 15.0 0.010 0.40 5.91 0.33 80.90 80.90 P15 O-3 75.76 IN D2 75.79 6.3 -0.005 Circle 30.0 0.013 9.70 28.32 1.98 80.70 80.70 P16 IN D2 75.79 MH-18 76.11 65.2 -0.005 Circle 18.0 0.013 3.20 7.36 1.81 80.79 80.73 P17 POND OUT 75.64 MH-3 75.60 11.9 0.003 Circle 12.0 0.010 1.00 2.69 1.27 78.04 78.04 P18 MH-3 75.60 MH-2 75.35 73.0 0.003 Circle 12.0 0.010 1.00 2.71 1.27 78.02 77.98 FlexTable: Outfall Table Energy Grade Line (ft) Flow (Total Out) (cfs) Hydraulic Grade (ft) Elevation (User Defined Tailwater) (ft) Elevation (Invert) (ft) Set Rim to Ground Elevation? Elevation (Ground) (ft) Label EX MH 79.40 True 74.90 77.90 77.90 1.00 77.90 O-2 80.70 True 75.74 80.70 80.70 13.20 80.70 O-3 80.70 True 75.76 80.70 80.70 9.70 80.70 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Profile Report Engineering Profile - IN A1, A2 TO O-2 (Storm A and B.stsw) 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Profile Report Engineering Profile - IN B1, B2 TO O-2 (Storm A and B.stsw) 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Profile Report Engineering Profile - IN B4 TO O-2 (Storm A and B.stsw) 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Profile Report Engineering Profile - IN-C1 TO O-3 (Storm A and B.stsw) 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Profile Report Engineering Profile - IN-C2 TO O-3 (Storm A and B.stsw) 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] Profile Report Engineering Profile - POND OUT TO EX MH (Storm A and B.stsw) 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] D APPENDIX D WATER QUALITY & DETENTION POND AND LID INFORMATION New Impervious Area 93,585 sf Required Minimum Impervious Area to be Treated 46,793 sf Treatment #1 ‐ Pervious Pavers 17,115 sf Area to Treatment #1 (Basin D) 29,211 sf Total Area Treated 46,326 sf Actual % On‐Site Treated by LID 50 % New Pavement Area 46,228 sf Required Minimum Area of Pervious Pavement 11,557 sf Area of Pervious Pavers Provided 17,115 sf Actual % of Pervious Pavement Provided 37 % Impervious Area to Pervious Pavers 29,211 sf Total Pervious Pavement Area 17,115 sf Ratio 1.7 50% On‐Site Treatment by LID Requirement 3:1 Ratio Requirement LID Table 25% Porous Pavement Requirement Design Procedure Form: Extended Detention Basin (EDB) - Sedimentation Facility POND Project Name: 3425 SOUTH SHIELDS SUBDIVISION Project Number: 1285-045-00 Company: INTERWEST CONSULTING GROUP Designer: ES Date: 2/2/2017 1. Basin Storage Volume A) Tributary Area's Imperviousness Ratio (i=Ia/100) Ia = 65 % i = 0.65 B) Contributing Watershed Area (Area) A = 2.72 acres C) Water Quality Capture Volume (WQCV) WQCV = 0.254134 watershed inches (WQCV = 1.0 * (0.91 * i3 - 1.19 * i2 + 0.78i) ) 60% of Vol. D) Design Volume: Vol = WQCV/12 * Area * 1.2 Vol. = 0.069124 ac-ft 0.041475 ac-ft 2. Outlet Works A) Outlet Type (Check One) x Orifice Plate Perforated Riser Pipe Other: B) Depth at Outlet Above Lowevst Perforations (H) H = 1.9 ft C) Required Maxiumum Outlet Area per Row, (Ao) Ao = 0.12 square inches (Figure EDB-3) D) Perforation Dimensions (enter one only) i) Circular Perforation Diamter OR D = 3/8 inches, OR ii) 2" Height Rectangular Perforation Width W = inches E) Number of Columns (nc, See Table 6a-1 for Maximum) nc = 1 number F) Actual Design Outlet Area per Row (Ao) Ao = 0.11 square inches G) Number of Rows (nr) nr = 6 number H) Total outlet Area (Aot) Aot = 0.66 square inches 3. Trash Rack A) Needed Open Area: At = 0.5 * (Figure 7 Value) * Aot At = 22.44668 square inches B) Type of Outlet Opening (Check One) x < 2" Diameter Round 2" High Rectangular Other: C) For 2", or Smaller, Round Opening (Ref: Figure 6a) I) Width of Trash Rack and Concrete Opening (Wconc) Wconc = 3 inches from Table 6a-1 ii) Height of Trash Rack Screen (HTR) HTR = 22 inches = H - 2" for flange of top support iii) Type of Screen Based on Depth H) x S.S. #93 VE Wire (US Filter) Describe if "other" Other: iv) Screen Opening Slot Dimension, x 0.139" (US Filter) Describe if "other" Other: v) Spacing of Support Rod (O.C.) 3/4 inches Type and Size of Support rod (Ref: Table 6a-2) #156 VEE vi) Type and size of Holding Frame (Ref: Table 6a-2) 3/8" x 1.0" flat bar E APPENDIX E DETENTION INFORMATION Interwest Consulting Group DETENTION VOLUME CALCULATIONS Rational Volumetric (FAA) Method 100-Year Event LOCATION: 3524 Shields PROJECT NO: 1285-045-00 COMPUTATIONS BY: ES DATE: 2/2/2017 Equations: Area trib. to pond = 2.72 acre Developed flow = QD = CIA C (100) = 0.89 Vol. In = Vi = T C I A = T QD Developed C A = 2.4 acre Vol. Out = Vo =K QPO T Release rate, Q PO = 1.00 cfs storage = S = Vi - Vo K = 1 (from fig 2.1) Rainfall intensity from City of Fort Collins IDF Curve with updated (3.67") rainfall Storm Rainfall QD Vol. In Vol. Out Storage Storage Duration, T Intensity, I (cfs) Vi Vo S S (min) (in/hr) (ft 3 ) (ft 3 ) (ft 3 ) (ac-ft) 5 9.95 24.1 7226 300 6926 0.16 10 7.77 18.8 11281 600 10681 0.25 20 5.62 13.6 16328 1200 15128 0.35 30 4.47 10.8 19471 1800 17671 0.41 40 3.74 9.1 21729 2400 19329 0.44 50 3.23 7.8 23485 3000 20485 0.47 60 2.86 6.9 24922 3600 21322 0.49 70 2.57 6.2 26139 4200 21939 0.50 80 2.34 5.7 27195 4800 22395 0.51 90 2.15 5.2 28128 5400 22728 0.52 100 1.99 4.8 28966 6000 22966 0.53 110 1.86 4.5 29727 6600 23127 0.53 120 1.75 4.2 30424 7200 23224 0.53 130 1.65 4.0 31068 7800 23268 0.53 140 1.56 3.8 31666 8400 23266 0.53 150 1.48 3.6 32226 9000 23226 0.53 160 1.41 3.4 32752 9600 23152 0.53 170 1.35 3.3 33248 10200 23048 0.53 180 1.29 3.1 33718 10800 22918 0.53 190 1.24 3.0 34165 11400 22765 0.52 200 1.19 2.9 34591 12000 22591 0.52 210 1.15 2.8 34998 12600 22398 0.51 220 1.11 2.7 35387 13200 22187 0.51 230 1.07 2.6 35761 13800 21961 0.50 240 1.04 2.5 36121 14400 21721 0.50 250 1.00 2.4 36467 15000 21467 0.49 260 0.97 2.4 36801 15600 21201 0.49 Required Storage Volume: 23268 ft 3 0.53 acre-ft 2-2-17 Final Detention ES.xls,FAA-100yr Proposed Paver Rock Volume - Stage/Storage LOCATION: 3524 Shields PROJECT NO: 1285-045-00 COMPUTATIONS BY: ES SUBMITTED BY: INTERWEST CONSULTING GROUP DATE: 2/2/2017 V = 1/3 d ( A + B + sqrt(A*B)) where V = volume between contours, ft3 d = depth between contours, ft A = surface area of contour Surface Incremental Incremental Total Total Stage Area Rock Volume 30% Void Volume Void Volume Void Volume (ft) (ft2) (ft3) (ft3) (ft2) AC-Ft 5076.5 12900 5077.0 12900 6450 1935 1935 0.04 5077.5 12900 6450 1935 3870 0.09 5078.0 12900 6450 1935 5805 0.13 5078.5 12900 6450 1935 7740 0.18 5079.0 12900 6450 1935 9675 0.22 5079.4 12900 5160 1548 11223 0.26 5079.5 12900 1290 387 11610 0.27 5079.6 12900 1290 387 11997 0.28 5079.7 12900 1290 387 12384 0.28 5079.8 11500 1219 366 12750 0.29 5079.9 8300 986 296 13045 0.30 5080.0 7000 764 229 13275 0.30 5080.1 5800 639 192 13466 0.31 5080.2 4700 524 157 13624 0.31 5080.3 3700 419 126 13749 0.32 5080.4 2800 324 97 13847 0.32 5080.5 2200 249 75 13921 0.32 5080.6 1600 189 57 13978 0.32 5080.7 1200 140 42 14020 0.32 2-2-17 Final Detention ES.xls Proposed Detention Pond - Stage/Storage LOCATION: 3524 Shields PROJECT NO: 1285-045-00 COMPUTATIONS BY: ES SUBMITTED BY: INTERWEST CONSULTING GROUP DATE: 2/2/2017 V = 1/3 d ( A + B + sqrt(A*B)) where V = volume between contours, ft3 d = depth between contours, ft A = surface area of contour Surface Incremental Total Detention Stage Area Storage Storage Storage (ft) (ft2) (ac-ft) (ac-ft) (ac-ft) 5075.6 0 5076.0 650 0.00 0.00 5076.5 980 0.01 0.01 5077.0 1070 0.01 0.02 WQCV 5077.5 1170 0.01 0.04 0.00 5078.0 1270 0.01 0.05 0.01 5078.5 1370 0.02 0.07 0.03 5079.0 1480 0.02 0.08 0.05 5079.5 1730 0.02 0.10 0.06 5080.0 2240 0.02 0.12 0.09 5080.1 2350 0.01 0.13 0.09 5080.2 3250 0.01 0.13 0.10 5080.3 7710 0.01 0.15 0.11 5080.4 9620 0.02 0.17 0.13 5080.5 11480 0.02 0.19 0.15 5080.6 13330 0.03 0.22 0.18 100-yr WSEL- 5080.7 14960 0.03 0.25 0.22 REQUIRED DETENTION VOL = 0.53 AC-FT WQCV (60% of total WQCV volume) = 0.04 AC-FT TOTAL REQUIRED VOLUME = 0.57 AC-FT PAVER VOLUME= 0.32 AC-FT POND VOLUME= 0.22 AC-FT PIPE VOLUME= 0.03 AC-FT TOTAL PROVIDED VOLUME = 0.57 AC-FT 2-2-17 Final Detention ES.xls POND 100-yr Event, Outlet Sizing LOCATION: 3524 Shields PROJECT NO: 1285-045-00 COMPUTATIONS BY: ES SUBMITTED BY: INTERWEST CONSULTING GROUP DATE: 2/2/2017 Submerged Orifice Outlet: release rate is described by the orifice equation, Qo = CoAo sqrt( 2g(h-Eo)) where Qo = orifice outflow (cfs) Co = orifice discharge coefficient g = gravitational acceleration = 32.20 ft/s Ao = effective area of the orifice (ft2) Eo = greater of geometric center elevation of the orifice or d/s HGL (ft) h = water surface elevation (ft) Qo = 1.00 cfs outlet pipe dia = D = 12.0 in Invert elev. = 75.60 ft (inv. "D" on outlet structure) Eo = 76.60 ft (downstream HGL for peak 100 yr flow - from FlowMaster) h = 80.70 ft - 100 yr WSEL Co = 0.65 solve for effective area of orifice using the orifice equation Ao = 0.095 ft2 = 13.6 in2 orifice dia. = d = 4.17 in Check orifice discharge coefficient using Figure 5-21 (Hydraulic Engineering ) d/ D = 0.35 kinematic viscosity, v = 1.22E-05 ft2/s Reynolds no. = Red = 4Q/(dv ) = 3.01E+05 Co = (K in figure) = 0.65 check Use d = 4.25 in A o = 0.099 ft 2 = 14.19 in 2 Qmax = 1.04 cfs orifice - 100yr, 2-2-17 Final Detention ES.xls F APPENDIX F SOILS INFO, FEMA FIRM AND REFERENCE MATERIALS Hydrologic Soil Group—Larimer County Area, Colorado (3425 S SHIELDS ST APARTMENTS) Natural Resources Conservation Service Web Soil Survey National Cooperative Soil Survey 7/26/2016 Page 1 of 4 4487690 4487710 4487730 4487750 4487770 4487790 4487690 4487710 4487730 4487750 4487770 4487790 491690 491710 491730 491750 491770 491790 491810 491830 491850 491870 491690 491710 491730 491750 491770 491790 491810 491830 491850 491870 40° 32' 27'' N 105° 5' 53'' W 40° 32' 27'' N 105° 5' 45'' W 40° 32' 23'' N 105° 5' 53'' W 40° 32' 23'' N 105° 5' 45'' W N Map projection: Web Mercator Corner coordinates: WGS84 Edge tics: UTM Zone 13N WGS84 0 40 80 160 240 Feet 0 10 20 40 60 Meters Map Scale: 1:882 if printed on A landscape (11" x 8.5") sheet. MAP LEGEND MAP INFORMATION Area of Interest (AOI) Area of Interest (AOI) Soils Soil Rating Polygons A A/D B B/D C C/D D Not rated or not available Soil Rating Lines A A/D B B/D C C/D D Not rated or not available Soil Rating Points A A/D B B/D C C/D D Not rated or not available Water Features Streams and Canals Transportation Rails Interstate Highways US Routes Major Roads Local Roads Background Aerial Photography The soil surveys that comprise your AOI were mapped at 1:24,000. Warning: Soil Map may not be valid at this scale. Enlargement of maps beyond the scale of mapping can cause misunderstanding of the detail of mapping and accuracy of soil line placement. The maps do not show the small areas of contrasting soils that could have been shown at a more detailed scale. Please rely on the bar scale on each map sheet for map measurements. Source of Map: Natural Resources Conservation Service Web Soil Survey URL: http://websoilsurvey.nrcs.usda.gov Coordinate System: Web Mercator (EPSG:3857) Maps from the Web Soil Survey are based on the Web Mercator projection, which preserves direction and shape but distorts distance and area. A projection that preserves area, such as the Albers equal-area conic projection, should be used if more accurate calculations of distance or area are required. This product is generated from the USDA-NRCS certified data as of the version date(s) listed below. Soil Survey Area: Larimer County Area, Colorado Hydrologic Soil Group Hydrologic Soil Group— Summary by Map Unit — Larimer County Area, Colorado (CO644) Map unit symbol Map unit name Rating Acres in AOI Percent of AOI 3 Altvan-Satanta loams, 0 to 3 percent slopes B 2.2 66.0% 4 Altvan-Satanta loams, 3 to 9 percent slopes B 0.1 2.3% 74 Nunn clay loam, 1 to 3 percent slopes C 1.1 31.7% Totals for Area of Interest 3.3 100.0% Description Hydrologic soil groups are based on estimates of runoff potential. Soils are assigned to one of four groups according to the rate of water infiltration when the soils are not protected by vegetation, are thoroughly wet, and receive precipitation from long-duration storms. The soils in the United States are assigned to four groups (A, B, C, and D) and three dual classes (A/D, B/D, and C/D). The groups are defined as follows: Group A. Soils having a high infiltration rate (low runoff potential) when thoroughly wet. These consist mainly of deep, well drained to excessively drained sands or gravelly sands. These soils have a high rate of water transmission. Group B. Soils having a moderate infiltration rate when thoroughly wet. These consist chiefly of moderately deep or deep, moderately well drained or well drained soils that have moderately fine texture to moderately coarse texture. These soils have a moderate rate of water transmission. Group C. Soils having a slow infiltration rate when thoroughly wet. These consist chiefly of soils having a layer that impedes the downward movement of water or soils of moderately fine texture or fine texture. These soils have a slow rate of water transmission. Group D. Soils having a very slow infiltration rate (high runoff potential) when thoroughly wet. These consist chiefly of clays that have a high shrink-swell potential, soils that have a high water table, soils that have a claypan or clay layer at or near the surface, and soils that are shallow over nearly impervious material. These soils have a very slow rate of water transmission. If a soil is assigned to a dual hydrologic group (A/D, B/D, or C/D), the first letter is for drained areas and the second is for undrained areas. Only the soils that in their natural condition are in group D are assigned to dual classes. Hydrologic Soil Group—Larimer County Area, Colorado 3425 S SHIELDS ST APARTMENTS Natural Resources Conservation Service Web Soil Survey National Cooperative Soil Survey 7/26/2016 Page 3 of 4 Rating Options Aggregation Method: Dominant Condition Component Percent Cutoff: None Specified Tie-break Rule: Higher Hydrologic Soil Group—Larimer County Area, Colorado 3425 S SHIELDS ST APARTMENTS Natural Resources Conservation Service Web Soil Survey National Cooperative Soil Survey 7/26/2016 Page 4 of 4 ✁ ✂ ✄ ☎ ✂ ✆ ✝ ✞ ✁ ✄ ✟ ✝ ✓ ✁ ✔ ✄ ✕ ✂ ✖ ✗ ✠ ✘ ✂ ✙ ☎ ✚ ✡ ✛ ✜ ✂ ☛ ✘ ☞ ✗ ✌ ✢ ✍ ✣ ✎ ✤ ✏ ✤ ✗ ✥ ✦ ✗ ✦ ✧ ✗ ★ ✢ ✗ ✥ ✩ ✔ ✪ ✗ ✫ ✤ ✬ ✗ ★ ✭ ✮ ✣ ✯ ✰ ✥ ✗ ✰ ✰ ✱ ✔ ✖ ✯ ✗ ✰ ✁ ✡ ☎ ✑ ✒ ✒ ❅ ✺ ✵ ✿ ✳ ✶ ✵ ✹ ✵ ❆ ✺ ✸ ✻ ✲ ✼ ☛ ✶ ✲ ✳ ✞ ✴ ✽ ✡ ✲ ✸ ✵ ✲ ✶ ✼ ✾ ✷ ✶ ✸ ✸ ✿ ✵ ✾ ✿ ✼ ✵ ✄ ❂ ❀ ❃ ✶ ✶ ✸ ✸ ✼ ❄ ✶ ✿ ✷ ✳ ✺ ✾ ✵ ✲ ✳ ❁ ✶ ✶ ✵ ✵ ✁ ✶ ✞ ☎ ✹ ✠ ✵ ✿ ✷ ✶ ✿ ✺ ✳ ✴ ❂ ✿ ❇ ❁ ❁ ✶ ✾ ✿ ❇ ✽ ✳ ❂ ● ✶ ✺ ❊ ✾ ● ✿ ✶ ✳ ✻ ✲ ✷ ✲ ✸ ✿ ❇ ✸ ✾ ✼ ❂ ❆ ✽ ✿ ☞ ✲ ✷ ✴ ✿ ❇ ❇ ✷ ❍ ✶ ✲ ✴ ✾ ✲ ✸ ✶ ✲ ✼ ✲ ✸ ✽ ✶ ✵ ✶ ✲ ✴ ✵ ✏ ❈ ❋ ❏ ■ ❉ ❉ ❑ ✄ ✳ ✴ ✠ ▼ ✂ ☛ ✺ ✿ ❃ ✲ ❁ ✺ ✵ ✲ ❇ ✽ ❇ ✾ ✻ ✾ ✸ ● ✸ ✿ ✾ ✿ ✲ ● ✾ ✲ ❂ ✺ ✲ ✼ ❇ ✳ ✸ ❆ ✸ ✶ ✶ ✶ ✿ ✾ ✳ ✲ ❇ ☞ ✾ ✵ ✷ ✵ ✲ ✾ ✾ ✾ ✷ ✲ ✸ ✼ ❇ ✽ ✲ ✶ ✸ ✴ ❁ ✏ ✶ ✸ ▲ ❋ ❋ ■ ❉ ❑ ❑ ❀ ✲ ▼ ✸ ◆ ✶ ✵ ✲ ❖ ❄ ✼ ❍ ✶ ✲ ❂ ✸ ✶ ✶ ✾ ✲ ✶ ✵ ✸ ✿ ✶ ✵ ❈ ❉ ❑ ❀ ✹ ✁ ✡ ❇ ✼ ✲ ✳ ✲ ✽ ✿ ✴ ❍ ❇ ✸ ✷ ✶ ❁ ✷ ✷ ❄ ✸ ✲ ✷ ❇ ✶ ✵ ✴ ✺ ❇ ✷ ✳ ❍ ❃ ✴ ✲ ✶ ✵ ✸ ✴ ✴ ✂ ✲ ✸ ✸ ✶ ✶ ✲ ✲ ✵ ✵ ❆ ❉ ✎ ✎ ❑ ❑ ❉ ☞ ▼ ✆ ✑ P ✿ ✸ ✻ ✵ ✽ ✻ ✶ ● ✾ ✶ ✵ ✶ ✷ ✳ ✿ ✳ ✸ ✾ ✿ ✶ ❊ ✼ ❇ ✲ ✶ ✻ ✻ ❇ ✳ ❇ ❇ ✷ ✷ ✾ ✴ ✵ P P ❖ ✺ ✲ ✲ ✲ ✵ ❁ ✳ ✶ ✳ ✸ ✲ ✲ ✿ ✳ ✼ ❇ ❇ ❍ ❍ ✷ ✺ ✵ ✵ ✾ ❇ ✾ ✿ ✿ ✵ ✺ ✴ ✵ ✸ ✶ ✲ ✻ ✿ ❇ ✳ ✶ ✴ ✏ ❘ ◗ ◗ ❉ ✹ ✾ ✸ ❀ ✆ ✶ ✲ ✸ ✶ ✲ ❄ ✾ ✵ ❄ ✶ ✶ ❆ ✴ ❇ ☞ ❃ ✲ ✼ ◆ ✶ ✴ ✏ ✎ ❘ ❑ ❑ ❑ ✁ ☛ ☛ ✲ ✲ ✸ ✷ ✿ P P ✷ ❄ ✶ ✻ ✳ ✳ ✵ ✵ ✵ ✲ ❖ ❖ ✳ ✵ ✼ ✴ ✲ ❇ ✲ ✳ P ❍ ✴ ✶ ✲ ❍ ❍ ❇ ◆ ✵ ✵ ✵ ✷ ✷ ✿ ✿ ❇ ❇ ❈ ❈ ❑ ❑ ❑ ❑ ■ ✹ ✶ ✶ ✒ ✿ ❁ ✺ ✸ ✶ ✵ ✁ ✑ ● ❙ ✾ ✽ ✸ ✷ ✺ ❁ ✽ ✁ ✑ ● ❉ ✻ ✷ ✸ ❃ ✶ ✸ ✼ ✶ ✳ ✾ ✲ ❁ ✶ ✿ ❂ ❃ ✶ ✸ ❄ ✿ ✷ ✺ ✵ ✳ ✶ ✵ ✵ ✍ ❴ ❵ ❫ ❵  ❚ ❱ ❳ ❚ ❪ ❭  ❚ ❱ ❩ ❩ ❪ ❬  ❚ ❱ ❚ ❳ ❨ ❪  ❲ ❱ ❚ ❯ ✻ ✷ ✸ ❴ ❛ t ❲ ❖ ✷ ✾ ✽ ✶ ✸ P ✿ ✵ ✶ ❴ ❛ ❜ ❲ ☞ ✁ ✑ ● ❏ ✏ ♥ ♦ ♣ ♠ ♦ ♣  ❝ ❡ ❣ ✐ ❣ ❧ ❦  ❝ ❡ ❢ ❣ ❤ ❧ ❥  ❝ ❡ ❢ ❢ ❞ ❧  ❝ ❡ ❝ ❞ ☞ ✁ ✑ ● ▲ ✏ ◗ ✉ ❑ ✈ ✇ ❑ ① ▲ ② ● ③ ❑ ✈ ① ✎ ④ ♥ ② ① t ⑤ ⑥ ① ② ⑦ r ⑧ s ⑨ ⑩ ⑩  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✖ ✝ ✘ ✞ ✞ ✏ ✎ ✝ ✖ ✘ ☛ ✜ ✝ ✑ ✟ ✏ ✑ ✧ ✄ ☛ ✎ ✖ ✍ ☛ ✓ ✍ ✢ ✟ ✒ ✎ ✣ ✑ ✖ ✌ ✤ ✄ ✑ ✥ ✒ ✦ ☛ ✞ ✔ ✄ ✕ ✜ ✟ ✟ ☞ ✑ ✟ ☛ ☛ ✄ ✖ ✍ ✌ ☛ ✙ ✝ ✘ ✢ ✎ ☛ ✣ ✑ ✌ ✗ ✤ ✓ ☛ ✥ ✒ ✟ ✥ ☞ ✑ ✍ ✌ ✌ ✏ ✒ ✑ ✄ ✟ ✌ ☛ ✑ ✍ 7DEOH52 5DWLRQDO0HWKRG0LQRU6WRUP5XQRII&✾ ✸ ❀ ✸ ✹ ✹ ✹ ✹ ★ ❁ ✺ ❀ ✿ ✩ ❅ ✹ ✪ ❆ ❂ ✫ ❃ ✬ ✹ ❇ ✭ ✮ ✹ ✯ ❀ ✭ ✰ ✱ ✰ ✲ ✳ ✬ ✩ ✴ ✰ ✬ ✵ ✰ ✱ ✭ ✱ ✶ RHIILFLHQWVIRU=✷ ✰ ✩ ✻ ✲ ✻ ✻ ✻ ✲ ✼ RQLQJ&❄ ✼ ✼ ✼ ✭ ✽ ✽ ❈ ✫ ❄ ✭ ✩ ✱ ✯ ODVVLILFDWLRQV ❆ ❁ ❉ ❋ ✹ ✹ ❇ ● ❁ ❇ ✸ ❍ ✹ ❃ ✹ ✹ ❉ ✹ ❆ ■ ❇ ▼ ● ✹ ✹ ❅ ● ❆ ✸ ❆ ❏ ❅ ❅ ✹ ❇ ❇ ❇ ✹ ✹ ✹ ❇ ❇ ❁ ❅ ✹ ✸ ❇ ❅ ✹ ❇ ❀ ✹ ❆ ❅ ❆ ✹ ❇ ❅ ❇ ✹ ❑ ✻ ✻ ✻ ✻ ✼ ✼ ✼ ❈ ▲ ▲ ✼ ❊ ❄ ❄ ❄ ❂ ❃ ❖ ❋ ▼ ◆ ❇ ✿ ● ✹ ❅ ✹ P ❑ ❇ ◗ ❇ ❍ ❘ ❙ ❏ ✻ ✻ ✻ ✻ ✼ ✼ ✼ ✼ ▲ ▲ ▲ ❚ ❄ ❄ ❄ ❄ ✺ ❱ ◗ ❭ ❋ ❍ ❖ ❘ ❃ ❪ ■ ◗ ■ ❭ ❘ ◗ ❖ ❍ ❃ ❭ ❫ ❱ ❃ ❍ ❃ ❭ ❖ ❍ ● P ◗ ❍ ❪ P ● ❘ ❃ ✾ ❖ ❃ ❪ ❖ ❙ ❂ ✸ ❩ ❘ ■ ✹ ● ✹ ❯ ❬ ❇ ● ■ ❍ ✹ ❅ ❴ ❙ ❀ ❱ ❍ ❳ ❪ ❲ ❘ ■ P ❖ ❍ ❱ ❏ ❃ ● ❱ ❴ ● ❋ ❪ ❵ ❖ ❍ ● P ◗ ❍ ❪ P ● ❲ ❙ ■ ❘ ● ■ ◗ ■ ❴ ■ ◗ P ❱ ❛ ◗ P ❍ ❪ ✻ ✻ ❙ ✻ ■ ✼ ✼ ▲ ❨ ✼ ❨ ✺ ❄ ❄ ❱ ❋ ◗ ❱ ❴ P ❵ ■ ❇ ❍ P ❜ ❀ ❘ ❃ ❖ ✾ ● ■ ❇ ❱ ❖ ■ ❅ ❘ ● ❘ ❝ ■ ❃ ❖ ■ ❖ ✼ 7DEOH52 5DWLRQDO0HWKRG5XQRII&❑ P ◗ ■ ❛ ❇ ✐ ■ ✷ ❱ P ● ◗ ❞ ● ❲ ❘ ❃ ❅ ✴ ❯ ❵ ❪ ❲ ✬ ■ ❘ ◗ ✴ ❘ ❙ ■ ❙ ✫ ◗ P P ❤ ■ ✯ ✩ ❍ ❃ ✬ ❭ ✰ ✲ ❙ ❱ ❡ P ❢ ● ❅ ✬ ✲ ❖ ✴ ◗ ❍ ✫ ❯ RHIILFLHQWVIRU&✩ ■ ● ❏ ❣ ❢ ✱ ✰ ✲ ✲ RPSRVLWH$✻ ✻ ✷ ✻ ✼ ✼ ▲ ▲ ✼ ✰ ❄ ❄ ❄ ✩ ✲ ✲ ✭ ✫ ✭ ✩ ✱ QDO\✯ VLV ❀ ❘ ❥ ✸ ✸ ✺ ❛ ❃ ❙ ❱ ■ ❯ ❘ ● ❪ ❱ ■ P ❅ ❜ ◗ ❴ ❦ ● ❘ ● ❪ ❘ ❨ ❭ ❙ ❃ ■ ❧ ■ ❖ ❖ ❜ ❨ ❘ P ● ● ❱ ❲ ❱ ❍ ❵ ❊ ❙ ❘ ❏ ❧ ❙ P ✻ ✻ ✻ ✻ ✼ ✼ ▲ ♠ ✼ ✼ ♠ ❚ ❄ ❄ ❀ ❘ ❥ ❑ ✺ ❛ ❑ ❃ P ❙ P ❯ ❘ ■ ■ ● ■ ■ P ■ ❅ ❲ ❲ ◗ ❦ ❵ ❘ ■ ❨ ❭ ♥ ♥ ❘ ❧ ■ ❊ ❊ ❯ ❧ ❧ ❜ ❨ P ● ❱ ❱ ❍ ❊ ❙ ❏ ❧ ✻ ✻ ✻ ✻ ✼ ✼ ❨ ✽ ✼ ✼ ❨ ❨ ❄ ❄ ✂ ♦ ☎ ♣ ✎ ☛ q r s t ✉ ✈ ✇ ① ② ③ ④ ✏ ✑ ✟ ✖ ✖ ☛ ✖ ✔ ✌ ✝ ✞ ☛ ✟ ✖ ✟ ✑ ✕ ✝ ✍ ✍ ✝ q ✑ ⑤ ✁  ✟ ✜ ✂ &✠ ✗ ✄ RPSRVLWH5XQRII&☎ ☎ ✟ ✆ ✒ ✝ ✒ ✓ ✓ ☎ ✞ ✔ ✔ ✟ ✕ ✕ ✠ ✓ ✓ ✡ ✠ ✠ ☛ ✆ ✆ ✎ ✎ ☞ ✟ ✟ ☛ ✄ ☎ ✄ ✡ ✡ ✠ ✝ ✆ ✝ ✝ ✓ ✓ ✠ ✌ ✌ ✌ ✌ ☎ RHIILFLHQW ✄ ✒ ✒ ✟ ✓ ✓ ✟ ✟ ✌ ✄ ✌ ✌ ✟ ✌ ✌ ✆ ✆ ✍ ✒ ✒ ✡ ✆ ✆ ✟ ✟ ✟ ✝ ✝ ✝ ✎ ✎ ✎ ✏ ✔ ✆ ✑ ✠ ✡ ✒ ✓ ✠ ✓ ☛ ✎ ✔ ✎ ☛ ☎ ✕ ✆ ✟ ✝ ✓ ✒ ✟ ✠ ☎ ✖ ✟ ✏ ✖ ✒ ✡ ✡ ✠ ✓ ✏ ✆ ✌ ☎ ✝ ✎ ✏ ✞ ✟ ☎ ✖ ✝ ✎ ✗ ✖ ✌ ✟ ✓ ✎ ✄ ✌ ✗ ✓ ☎ ☎ ✏ ✎ ✝ ✏ ✓ ✗ ✑ ✢ ☎ ✞ ✠ ✆ ✆ ✝ ✛ ✔ ✞ ✟ ✡ ✝ ✌ ✏ ✓ ✎ ✖ ✆ ✄ ✕ ✄ ✔ ☎ ✏ ✟ ✆ ✡ ✝ ✏ ✠ ☎ ☎ ✡ ✞ ✣ ✄ ✟ ✌ ☎ ✠ ✒ ✡ ✟ ☛ ✠ ☞ ☛ ✓ ☎ ✄ ✠ ✘ ✆ ✝ ✓ ✙ ✝ ✆ ✝ ✞ ✒ ✏ ☎ ✠ ✠ ✆ ✌ ✆ ✒ ☎ ✎ ✆ ✓ ✝ ✠ ✙ ✚ ✝ ✠ ✡ ✒ ✗ ✒ ☎ ✠ ☞ ✦ ✥ ( ✦ ✤ ✦ ) ★ ∑ ★ ✧ ✧ ✰ ✗ = ✟ ✄ ✟ = ✩ ✣ ✪ ✫ ✬ ✭ ☞ ✮ ✯ ✵ ✱ ✝ ✱ ✳ ✳ ✲ ✲ ✲ ✲ ✸ ✱ ✬ ✵ ✡ ✓ ✡ ✄ ✔ ✔ ✟ ✝ ☎ ☛ ✓ ✕ ✟ ✌ ✓ ✓ ✌ ✄ ✌ ✠ ✱ ✆ ✓ ✴ ✎ ✌ ✟ ✓ ✡ ✟ ✖ ✄ ✬ ✌ ✌ ✆ ✌ ☎ ✌ ✡ ✆ ✌ ✒ ✝ ✒ ✟ ✟ ✓ ✆ ✄ ✟ ✟ ✌ ✢ ✝ ✌ ✝ ✎ ✆ ✎ ✱ ✎ ✌ ✗ ✠ ✓ ✓ ✡ ✟ ✄ ✬ ✄ ✌ ✌ ✴ ✡ ✌ ☎ ✆ ✕ ✝ ✒ ✒ ✟ ✓ ✟ ✆ ✒ ✟ ✌ ✠ ✌ ✆ ✝ ✌ ✎ ✎ ✱ ✓ ✆ ✒ ✓ ☛ ✵ ✟ ✟ ✌ ✄ ✌ ✒ ✟ ✆ ✓ ☎ ✒ ✝ ✆ ✫ ✟ ✠ ✵ ✝ ✆ ✖ ✎ ✳ ✯ ✟ ✓ ✄ ✌ ✟ ✖ ✱ ✳ ✶ ☎ ✒ ✄ ✟ ✠ ✓ ✄ ✌ ✟ ✟ ✎ ✷ ✫ ✺ ✯ ✵ ✵ ✹ ✝ ✲ ✟ ✢ ✜ ✓ ✻ ✎ ✼ ☎ ✽ ✏ ✾ ✵ ✿ ❀ ✄ ❁ ✟ ☎ ❂ ✓ ❃ ❄ ✛ ❅ ✟ ✄ ✆ ✠ ✢ ☎ ✗ ✖ ✆ ✖ ✒ ✟ ✗ ✖ ✱ ✶ ✎ ✆ ✓ ✠ ✄ ☎ ✟ ✕ ☎ ✕ ✖ ✏ ✆ ☎ ✒ ✠ ☎ ☛ ✌ ✓ ✏ ✟ ✏ ✏ ✶ ✓ ☎ ✢ ✒ ✄ ✠ ✟ ✣ ✠ ✓ ✄ ✌ ✟ ✟ ✎ ✷  ✎ ✠ ✄ ✜ ✜QIUHTXHQW6WRUPV 5XQRII&✄ ✡ ✎ ☎ ✗ ✗ ✓ ✝ ✎ ✟ ✟ ✄ ✓ ✆ ✔ ✠ ✓ ✄ ✌ ✟ ✝ ✌ ✡ ✠ ✙ ✶ ✌ ✝ ✢ ✄ ✓ ✖ ✜ ✟ ✆ ✌ ✟ ✍ ✗ ✎ RHIILFLHQW$✌ ✕ ✗ ✡ ✆ ✒ ✄ ✠ ✟ ✟ ✗ ✓ ✝ ☎ ✠ ✆ ✟ ✒ ✖ ✞ ✠ ✌ ❊ ✑ ✆ ✗ ✌ ✓ ✡ ✆ ✟ ☎ ✒ ✝ ✠ ✄ ✖ ✆ ✎ ✟ ✔ ❊ ✄ ✆ ✝ ✝ ✟ ✡ ✟ ✎ ✎ ✎ ✠ ✟ ✟ ✠ ✝ GMXVWPHQWIRU,✎ ✔ ✝ ✝ ✎ ✕ ✎ ✠ ✆ ✄ ✟ ✆ ✆ ✠ ✓ ✓ ✎ ✝ ✆ ☎ ✝ ✛ ✎ ✟ ✕ ✶ ✆ ✠ ✌ ✖ ✕ ✶ ☎ ✟ ✟ ✏ ✒ ☎ ✛ ✆ ✖ ✎ ✝ ✟ ☎ ✓ ✖ ✕ ✆ ✄ ☎ ✝ ✓ ✠ ✖ ✎ ✓ ☞ ✎ ❊ ☎ ✎ ☎ ✡ ✄ ✄ ✎ ☛ ☎ ✟ ✠ ✗ ✏ ✎ ✝ ✟ ✟ ✔ ✌ ✠ ✓ ✠ ✒ ✕ ✟ ✡ ✓ ✬ ✆ ✝ ✝ ✄ ✔ ✭ ✎ ☎ ✖ ✎ ✓ ✕ ☞ ✆ ✆ ✓ ✌ ✓ ❆ ✝ ✝ ❇ ✠ ✎ ✜ ✗ ✆ ✎ ☎ ☎ ✟ ✟ ☎ ✝ ✝ ☛ ✄ ✄ ✖ ✖ ✡ ✏ ✡ ✟ ✝ ✬ ✝ ✓ ✬ ✓ ✓ ✎ ✭ ✗ ✌ ✌ ✭ ✌ ✌ ✟ ☞ ❆ ☞ ✄ ✒ ✒ ❆ ❆ ✓ ✓ ✏ ❈ ✓ ✟ ✟ ☎ ✙ ✠ ✌ ✌ ✄ ✌ ✠ ✌ ✟ ✆ ✆ ✟ ✒ ✒ ☎ ✠ ✆ ✆ ✟ ✕ ✟ ✎ ✝ ✕ ✝ ✗ ✎ ✄ ✎ ☎ ✙ ✓ ✎ ✆ ✠ ✕ ✗ ✄ ✄ ☎ ✆ ✟ ☎ ✛ ✍ ✎ ✟ ✟ ✡ ✆ ☎ ✌ ✄ ✓ ✟ ✕ ✄ ✖ ✄ ✡ ✓ ✖ ✠ ✕ ✡ ✟ ✓ ✟ ✢ ✄ ✎ ✎ ✓ ✆ ✆ ✓ ✎ ✗ ✎ ✝ ✗ ☎ ✎ ✟ ✗ ✏ ✏ ✟ ✏ ✑ ✟ ❈ ✠ ✠ ✠ ☞ ✔ ✟ ✑ ✝ ✟ ☎ ✆ ☎ ✏ ✝ ✏ ✄ ✟ ✞ ✄ ✠ ✎ ☎ ✟ ✓ ✔ ✌ ✄ ✌ ✔ ✓ ✟ ✡ ✒ ✟ ✎ ✝ ✛ ✎ ✓ ✟ ✓ ✝ ✝ ✌ ✎ ✠ ✙ ✆ ✎ ✝ ✓ ❉ ✌ ✄ ✆ ✓ ✔ ✏ ☞ ✄ 7DEOH52 ❋ 5DWLRQDO0HWKRG5XQRII&● ❍ ■ ❏ ❑ ▲ ● ❜ ▼ ❴ ❭ ❭ ❴ ■ ❴ ❝ ◆ ❪ ❪ ❪ ❪ ❫ ❫ ❫ ❫ ❖ ❴ ❴ ▲ ❭ ❜ ❵ ❵ ■ ❜ ❵ ❵ P ❍ ◗ ❘ ❙ ▲ ❚ ■ ❯ ❱ RHIILFLHQWVIRU&❲ ■ ▲ ❳ ▼ RPSRVLWH$▲ ◆ ❴ ❴ ❴ ❴ ❨ ❙ ❛ ❛ ❛ ❛ ❵ ❴ ❭ ❭ ❲ ❵ ❵ ❵ ❜ ❚ ❨ ● ❍ QDO\■ ❩ ❬ VLV 1RWH❞ ❡ ❢ ❣ ❤ ✐ ❫ ❥ ❦ ❧ ❪ ❫ ♠ ♥ ❪ ♦ ♣ ❣ q ♥ r ❧ s t t ❫ ❪ ❣ ✉ ❧ ❣ ❣ ❥ ❪ ❢ ❣ ✈ s ✇ ❦ ❣ ❫ ♠ ❴ ① ♦ t ❪ ❢ ❣ ❧ s q ❣ q ② ❢ ❣ ✐ ❣ ♦ ❪ ❥ ❫ ❣ q ③ s ✈ s ✇ ❦ ❣ ❫ ♠ ❴ ♣ ❦ q ❪ ④ ✫ ✫ ⑦ ⑤ ✯ ✯ ✻ ✻ ✼ ✼ ✽ ✽ ✾ ✾ ✿ ✿ ❀ ❀ ❁ ❁ ⑥ ⑥ ❃ ❃ ❂ ❄ ✆ ✆ ✠ ✠ ✖ ✖ ✟ ✟ ✏ ✏ ✟ ✟ ✎ ✎ ✟ ✟ ✖ ✖ ✆ ✆ ✝ ✝ ✆ ✆ ✎ ✎ ✠ ✠ ✟ ✟ ✝ ✝ ✎ ✎ ✆ ✆ ✄ ✄ ✟ ✟ ✎ ✎ ✑ ✑ ✙ ✙ ❣ ❦ q ❣ ❥ ❛ ✫ ✫ ⑧ ✮ ✯ ✯ ✻ ✵ ✼ ✽ ✝ ✾ ✟ ✿ ✢ ❀ ❁ ✻ ⑥ ✼ ❃ ✽ ⑥ ✾ ✿ ✆ ❀ ✠ ❁ ✖ ⑨ ✟ ❃ ✏ ⑥ ✟ ✎ ✟ ✆ ✠ ✖ ☎ ✆ ✖ ✝ ✖ ✆ ✟ ✎ ✠ ✖ ✶ ✟ ✎ ✝ ✓ ✎ ✆ ✄ ✄ ✟ ✟ ☎ ✎ ✑ ✖ ✙ ☎ ✠ ✌ ✓ ✏ ✏ ✓ ✢ ✠ ✣  ✫ ✴ ✫ ✎ ✟ &✗ ☎ ☛ ✄ ✎ RPSXWHU0RGHOLQJ3UDFWLFHV ✟ ✯ ✠ ✓ ✯ ❸ ✄ ✕ ✔ ❉ ✬ ✗ ✓ ✢ ✟ ✑ ✄ ✌ ⑩ ✠ ☎ ✟ ✆ ✒ ✎ ✒ ✄ ☎ ✟ ✆ ☎ ✝ ✎ ✄ ✄ ✏ ✓ ✒ ✡ ⑩ ✒ ✡ ☎ ✎ ✗ ✔ ✗ ✏ ☎ ☎ ✟ ✝ ✠ ✄ ✎ ☎ ☎ ✴ ☎ ✒ ✞ ✰ ✝ ✒ ✎ ✟ ✟ ✒ ☎ ✔ ⑩ ✄ ✟ ✝ ✆ ✠ ✟ ✠ ⑩ ✎ ✝ ✆ ✄ ✒ ✎ ✟ ✠ ❷ ✍ ☛ ⑩ ✡ ✓ ✟ ✠ ✆ ✓ ✌ ✟ ✄ ✖ ✄ ✆ ✎ ✠ ✝ ✗ ✟ ❸ ✞ ✟ ✏ ✌ ⑩ ✓ ✫ ✠ ✒ ✴ ✡ ✆ ☎ ✓ ✎ ✰ ✝ ✟ ✝ ✔ ✖ ✙ ✡ ⑩ ✕ ☎ ✏ ✡ ⑩ ✎ ✌ ✟ ✓ ✓ ✯ ✄ ✄ ✙ ✝ ✔ ☎ ❶ ✕ ✓ ✕ ☎ ✖ ✄ ✠ ✎ ✟ ✓ ✗ ✆ ✏ ✝ ✕ ✟ ✆ ✝ ✄ ☎ ✆ ✞ ☎ ✝ ✶ ✎ ✖ ✟ ✎ ❹ ✗ ✒ ✔ ✝ ✟ ✓ ✛ ✓ ✝ ✖ ✆ ✖ ✛ ✄ ✟ ✟ ✓ ✟ ✠ ✏ ✝ ✑ ✆ ✆ ✝ ✞ ✔ ☎ ✞ ✝ ✝ ✟ ✒ ✝ ✔ ✠ ✟ ✎ ✎ ☎ ✟ ✓ ✟ ✏ ✎ ✄ ✏ ✗ ✔ ✟ ✓ ✔ ✖ ✗ ✟ ✓ ❺ ✑ ✝ ✏ ✄ ✓ ✖ ✎ ✓ ✞ ✄ ✎ ✕ ✓ ✟ ✑ ☎ ✞ ✒ ✶ ✄ ✎ ✄ ☎ ✕ ✆ ☎ ✓ ✔ ✄ ✕ ☎ ✝ ✗ ✟ ✒ ✎ ✠ ✎ ✟ ✆ ✒ ✄ ✔ ✠ ✟ ✵ ✠ ✡ ✔ ✞ ✠ ☎ ✎ ✡ ✟ ✝ ✝ ✠ ✖ ☛ ✎ ✒ ✟ ✑ ✖ ☛ ✟ ✖ ✟ ✛ ✟ ✒ ✟ ✎ ✟ ✓ ✏ ✫ ✓ ✄ ✔ ❹ ✔ ✕ ❺ ✕ ✔ ✆ ✵ ✡ ✝ ✟ ✎ ✟ ✯ ✟ ✝ ✖ ✖ ✎ ✙ ✡ ☛ ✠ ✜ ☎ ✢ ✆ ✠ ✗ ✝ ✟ ✟ ✟ ✞ ☛ ✖ ❷ ✠ ✎ ✆ ✓ ✗ ✎ ✠ ✝ ✟ ✟ ☞ ✫ ✱ ✫ ✗ ✒ ✆ ✎ ✯ ✎ ✎ ✑ ✕ ✣ ✚ ✒ ❻ ✎ ❻ ✄ ✢ ✆ ✆ ✠ ✎ ✢ ✟ ✎ ✄ ✢ ✗ ✆ ☎ ✟ ✙ ✟ ☎ ✕ ✄ ✝ ✟ ☎ ✖ ✠ ✙ ✞ ✕ ✄ ✓ ✓ ✟ ✛ ✝ ✞ ❻ ✠ ✟ ✡ ✆ ✖ ✏ ☛ ☎ ✝ ✆ ✎ ✝ ✏ ✆ ✆ ✄ ✓ ✎ ✔ ✑ ✝ ✠ ✄ ✓ ✏ ✙ ❻ ✌ ✔ ✎ ✓ ✗ ✖ ✟ ✟ ✏ ✖ ✠ ✟ ❻ ✠ ✠ ✢ ✆ ✞ ✔ ✝ ✔ ✟ ❻ ✝ ✆ ✝ ✞ ✖ ✆ ✝ ✟ ✟ ❼ ✟ ✙ ✗ ✄ ✎ ✔ ✎ ✓ ✯ ✙ ✛ ✟ ✄ ✆ ✌ ✑ ✎ ✗ ☎ ✎ ☎ ✏ ✏ ✓ ✌ ✎ ✗ ✟ ✔ ✓ ✖ ✟ ✏ ✠ ✡ ✠ ✟ ✖ ✆ ✝ ✎ ✗ ✟ ✖ ✟ ✠ ✆ ✞ ✝ ✔ ✟ ✟ ✎ ☎ ✏ ✏ ✒ ✡ ✄ ✄ ✟ ✝ ✎  ❜ ✇ P ❝ ◗ ❞ r ❘ ❡ ♦ ❙ ❢ ① ❚ ❣ ❤ ❯ ❜ ✐ ❝ ❱ ❥ ❞ ❲ ❦ ❡ ❳ ❢ ❧ ❣ ♠ ❨ ❤ ♥ ❩ ❬ ✐ ♦ ❥ ♣ ❭ ✐ ♦ ❯ q ❪ ♦ ❧ ♠ ♥ ❫ ② ±5XQRII ❧ ♥ r ♥ ❧ ♦ q ♠ ♥ ③ ♦ q r ④ q ❧ s s ♦ ♦ ② q t ♥ ✉ ② ♠ ⑤ ④ ♣ ♣ ④ ① ♠ ⑥  ❴ ❽ ⑩ ❴ r 5XQRII0HWKRGRORJLHV ② ❹ ② q ♦ ❛ ④ ❛ q q ❧ s ④ ⑧ ⑩ ⑦ ⑦ ④ r ⑧ ⑧ ① ♥ ④ ♦ ♦ ④ ② ⑤ s ♣ q ❻ ♦ ④ q ♦ ⑧ ② ❶ s ② ♦ q t s ❧ ❼ ④ ♦ ② q ❷ r ④ ② q ❷ ② ① r ⑨ ♣ s ② ④ ④ ♠ ❼ ❶ ♦ ❷ ♦ s s ♦ ⑨ ⑩ ⑨ ❧ q ② r r ⑧ ♦ q ④ ♥ ④ ♦ r ⑤ ♦ ♥ q ⑤ s s ⑨ ⑩ ❼ ♥ ♥ r ♦ ❧ ② ④ ④ ⑤ q t ⑤ ⑤ ♦ ♥ ⑤ ♦ s ④ ♦ s ⑩ ⑩ ♣ ♦ r r ❧ ♣ ♦ ❴ r t q ❽ q ② ⑧ ❿ ❾ ❹ q ④ ❧ ❧ ♦ ④ s ♥ ❼ ❿ r ⑨ ④ ⑨ ♠ ♣ ❼ ⑩ ④ ⑩ ♦ ❶ ♥ ❛ ♠ ♦ t ✉ q q q ② ⑧ ④ q r ④ ④ ⑦ ♥ ❿ ♥ ⑧ ⑨ ♦ ♦ ④ ♦ ♠ q ♠ ♦ ♣ ✉ ♦ ④ s ❺ ✉ ❶ ⑩ ➀ ❧ ❧ q ② ❧ ♦ t r s ♠ ♣ ♦ t ❧ q ♠ ⑧ q ⑧ ❿ ② q ♦ ④ q ⑧ r ♦ s ② ⑨ q s ② ♥ r ♦ ❿ ♦ ④ q ② q ⑤ ♦ ① ❷ ⑤ s ❷ ⑤ ❧ ⑩ q s s ⑧ ④ ④ ❧ r ⑩ ❸ q ❧ ⑧ ♦ r ♥ ♦ ♥ ❶ s ❺ ❹ ② ② ❧ t ❧ ⑨ r q t q ② q ⑧ ⑧ ❶ ❧ ④ ♦ ♦ ♠ s ❧ ♦ ❹ ❺ q r t ② ❧ ❿ q ♠ t ❧ ① ④ r ③ ⑨ ❧ ♠ q q s ⑧ ⑧ ② q ⑧ ♦ ❶ ② s ♦ ♦ ❻ q ♥ ♠ ② ② ❷ ⑤ s q ♦ ④ ❧ ♦ ④ ❿ s ♣ r q ♦ q ② ⑧ ♠ q ♣ ④ ♠ ♦ ❼ q q q ⑧ ❧ ⑧ ⑩ ② ♦ ♦ r q ♦ ⑧ ② ♣ r ④ t ❷ ❧ ♥ r ❷ ♥ ♦ s ② ♦ ④ q r q t ❷ ♦ ♥ s s ❴ ❧ ⑩ ➂ q ② ⑧ ➃ q ❧ ♦ ♦ ❛ ➁ ❴ ➇ ❛ ② ❴ ❴ q ✇ ⑧ ➂ ❿ ❿ ♦ ❛ ➃ s r ♦ ❛ ❽ ♦ ♠ ✇ ① ② q ④ ❿ ❧ ♣ r ♣ s s ❜ ♦ ⑩ ❝ s ♠ ♠ ⑨ ❞ ❧ ➄ ➅ ④ r ❡ ❢ ♦ s ④ ❣ s ✉ ② ⑤ ❤ ⑩ ⑤ ❧ r ⑦ ➈ ④ ❿ ② ❥ ⑧ s ② ➉ ❶ ♦ ♦ ♣ ✉ ❿ ♦ ❧ ⑨ ❽ ♠ ❻ ♣ q ② ② ④ ♦ ♥ q s ❷ ❧ ♥ ⑩ ④ ④ ♦ r s ① ♥ q ♠ ③ ② ② ⑩ q q r ④ ♦ ♥ ② s s ♥ ② ♦ ❼ ♦ ♣ ② ♣ ♥ ② ❧ ♠ r r q ② ④ ② ♠ q ❶ s ⑧ ⑤ ⑩ ♦ ♦ ④ ⑩ ♣ ♥ ♥ ♣ ♦ ④ ♦ s r ② ① ♠ q ❧ ❧ ❶ ♠ r ❼ ⑥ r ② ❶ ④ ④ ♦ ♥ ⑤ ⑤ ♦ ❹ ② ♣ ❿ ④ ❴ ❧ q ❽ ♣ ⑧ ❧ ❾ q ❧ ✈ ♦ ➁ ❼ ♠ t ♥ ♦ ❼ ② ♦ s ♠ ❛ ❧ ② ❶ ⑩ r r ⑨ ♥ ♦ ♠ ♥ q ❵ ⑩ ➃ ❹ ➃ ♦ ⑨ ➁ ♠ t ⑨ q ♦ ♠ ❹ ♦ ② ♦ ♥ s ♠ ♥ q ⑧ ④ s ④ ② ⑩ ❧ ① r ④ r ② ❶ ♥ ④ ♦ ♦ r ♣ ♠ ❽ ♥ t s q ♠ ④ ② q ♦ ❧ s r ⑩ ⑩ ② ♠ ❶ ➅ ♦ ⑩ s ② ❹ ⑨ ❧ ② r ♠ ♠ q ② ❧ ❶ r ❹ ♦ ♦ ② ➆ s ❧ ♦ r ♣ ② ② ❿ r ♠ ♣ ⑨ ♠ ④ ♥ ✉ ⑤ ♦ ♥ r ❧ ① r ♦ ❧ q q t ⑧  ⑨ ❴ q s 5DWLRQDO0HWKRG5XQRII&❧ ② ⑨ ⑩ ④ ❛ r r ♦ ④ ♠ ♠ ⑦ ⑤ ⑤ ④ ⑧ ⑤ s ❿ ④ ♦ ④ s q ⑧ ♦ s ② ⑨ ♦ ⑤ r ⑤ r ❧ q ④ ❿ t ➋ ⑤ ❧ ❷ ♦ ⑤ ❸ ♦ r ♦ ❿ ♠ q s ④ ♠ ④ ② ♦ ⑤ ♣ ⑤ ⑤ ♣ ④ ⑤ ♠ s ❧ ➅ ⑨ ❿ ❿ s ❧ s ④ ⑤ ♦ ② ② r ⑩ ❧ ❿ r q ♦ ♠ ⑩ ② ♠ ❶ RHIILFLHQWV q ④ ♦ ④ ④ r r ➆ ❹ q t q ♦ ♣ ⑧ ② ❷ r ♦ ⑨ ♦ ♠ ♠ ♥ ❴ ♦ ➋ s ④ ♥ ② ⑤ ➅ ❧ ❧ r ➄ r ➆ ② ④ ❛ ❶ r q ⑧ ♦ ❧ ♠ ♦ r ⑨ ② ❶ ❹ ❻ s ⑩ ♦ ❿ ② ② ♣ ❧ q ② ✉ q ❧ ♠ q ④ ② ♠ ➊ r ♣ ❧ ④ ③ ② ⑤ ❧ ♣ r ❧ ❿ ⑤ ❧ ❼ ② r q q ❶ ❧ ⑧ ♦ ④ ♦ q ❿ r ⑧ ♣ ♠ q ④ ② t ♥ ♠ ❧ ❷ r ♠ ♦ ❧ ❿ q ⑤ ♠ ② ⑧ ❧ ❿ r ♦ ④ ② ⑤ ❿ ❹ q ❧ ❧ ♠ ♦ ④ q ⑨ t r ♥ s ♠ ⑤ ④ ♦ ② ⑤ q ⑩ ❿ ♦ ➍ ♦ s ② ⑩ ④ ♠ t s ❧ ② q ❹ r s ❺ ♦ ♦ ♦ ♥ ④ ⑨ r ♣ ♠ ❹ ♣ ④ ♦ ❧ ② q r ♥ ♠ ♠ ➌ ♦ q ✉ r ④ ♥ ④ ♦ ④ ① ♠ r q r ❧ ✉ ⑩ ♦ ❧ ② q ⑦ ⑧ q ♦ ♦ ② ❹ s ⑤ ♣ ♣ ➄ ♦ ④ ④ ① ❻ r ❧ ➋ s r ② ❶ ➁ q ♦ ❵ ❿ ➃ ♠ ♣ ② ② ♣ ♠ ❧ r ♠ ♠ ♥ q ❧ ♠ ⑤ ❸ ❧ ❿ q ④ ⑧ ② ♣ ♦ ➁ ➁ Survey Area Data: Version 10, Sep 22, 2015 Soil map units are labeled (as space allows) for map scales 1:50,000 or larger. Date(s) aerial images were photographed: Apr 22, 2011—Apr 28, 2011 The orthophoto or other base map on which the soil lines were compiled and digitized probably differs from the background imagery displayed on these maps. As a result, some minor shifting of map unit boundaries may be evident. Hydrologic Soil Group—Larimer County Area, Colorado (3425 S SHIELDS ST APARTMENTS) Natural Resources Conservation Service Web Soil Survey National Cooperative Soil Survey 7/26/2016 Page 2 of 4 P19 MH-2 75.35 MH-1 75.31 13.8 0.003 Circle 12.0 0.010 1.00 2.50 1.27 77.96 77.96 P20 MH-1 75.31 EX MH 75.00 90.6 0.003 Circle 12.0 0.010 1.00 2.71 1.27 77.94 77.90 P21 MH-18 76.11 MH-20 76.82 139.7 -0.005 Circle 12.0 0.010 1.60 3.30 2.04 80.99 80.82 P22 MH-20 76.82 MH-19 77.17 70.1 -0.005 Circle 12.0 0.010 1.60 3.27 2.04 81.13 81.04 P23 MH-19 77.17 IN-C2 78.08 181.3 -0.005 Circle 12.0 0.010 1.60 3.28 2.04 81.39 81.18 P24 MH-18 76.11 IN-C1 76.29 33.0 -0.005 Circle 12.0 0.010 1.60 3.42 2.04 80.86 80.82 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 1 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84] P11 MH-9 MH-10 75.9 PVC 15.0 2.20 1.79 75.96 76.34 -0.005 80.83 80.78 80.88 80.83 P12 MH-10 IN B3 10.1 PVC 15.0 2.20 1.79 76.34 76.39 -0.005 80.86 80.86 80.91 80.91 P13 IN B3 MH-11 25.6 PVC 15.0 0.40 0.33 76.39 76.52 -0.005 80.90 80.89 80.90 80.90 P14 MH-11 IN-B4 68.5 PVC 15.0 0.40 0.33 76.52 76.86 -0.005 80.90 80.90 80.90 80.90 Concret 30.0 9.70 1.98 75.76 75.79 -0.005 80.70 80.70 80.76 80.76 P15 O-3 IN D2 6.3 e Concret 18.0 3.20 1.81 75.79 76.11 -0.005 80.79 80.73 80.85 80.78 P16 IN D2 MH-18 65.2 e POND MH-3 11.9 PVC 12.0 1.00 1.27 75.64 75.60 0.003 78.04 78.04 78.07 78.06 P17 OUT P18 MH-3 MH-2 73.0 PVC 12.0 1.00 1.27 75.60 75.35 0.003 78.02 77.98 78.04 78.01 P19 MH-2 MH-1 13.8 PVC 12.0 1.00 1.27 75.35 75.31 0.003 77.96 77.96 77.99 77.98 P20 MH-1 EX MH 90.6 PVC 12.0 1.00 1.27 75.31 75.00 0.003 77.94 77.90 77.97 77.93 P21 MH-18 MH-20 139.7 PVC 12.0 1.60 2.04 76.11 76.82 -0.005 80.99 80.82 81.06 80.89 P22 MH-20 MH-19 70.1 PVC 12.0 1.60 2.04 76.82 77.17 -0.005 81.13 81.04 81.19 81.11 P23 MH-19 IN-C2 181.3 PVC 12.0 1.60 2.04 77.17 78.08 -0.005 81.39 81.18 81.46 81.24 27 Siemon Company Drive Suite 200 W Watertown, CT 06795 USA Page 1 of 2 +1-203-755-1666 2/2/2017 Bentley StormCAD V8i (SELECTseries 3) Storm A and B.stsw Bentley Systems, Inc. Haestad Methods Solution Center [08.11.03.84]